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Engineering Resources

Practical references, templates, and learning materials designed to strengthen professional engineering competency.

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Commissioning

PIPING SYSTEM COMMISSIONING

**Piping System Commissioning Handbook Version 1.0** presents a structured, practical, and field-oriented framework for planning, executing, verifying, documenting, and handing over industrial piping systems. The handbook provides a systematic approach to commissioning activities, helping engineering, construction, inspection, commissioning, and operations teams establish controlled boundaries and demonstrate that piping systems are ready for safe and reliable service. The handbook covers systemization, mechanical completion, turnover control, P&ID verification, test-pack preparation, work-pack management, line checking, punch-list control, flushing, air blowing, steam blowing, chemical cleaning, hydrostatic testing, pneumatic testing, sensitive leak testing, drying, preservation, reinstatement, and final system verification. Special attention is given to valves, inline components, piping supports, small-bore piping, instrument piping, temporary utilities, drains, vents, blinds, test connections, and other critical field interfaces. The handbook explains how temporary commissioning arrangements must be properly controlled and how systems must ultimately be reinstated to their approved operating configuration. Technical content includes calculation notes, worked engineering examples, material and equipment requirements, inspection and test planning, field-release controls, calibrated measurement requirements, commissioning forms, system checklists, verification records, and turnover documentation. 3D engineering schematics and field-style visualizations are incorporated to support understanding of piping configurations, testing boundaries, equipment interfaces, and commissioning workflows. The handbook emphasizes traceability and evidence-based commissioning. Test boundaries must be clearly defined, instruments must be calibrated, inspection results must be recorded, punch items must be controlled, and completed activities must be supported by verifiable documentation. This approach helps reduce commissioning errors, protect piping integrity, and improve the quality of final handover dossiers. Additional guidance addresses pre-start-up safety review (PSSR), start-up readiness, operating preparation, reliability considerations, maintenance requirements, preservation routines, and post-commissioning verification. The handbook is adaptable to Oil & Gas, Petrochemical, Chemical, Power Plant, Water and Wastewater, Mining, Manufacturing, Offshore, Infrastructure, and Marine facilities. Project-specific codes, specifications, approved drawings, contracts, client standards, statutory requirements, and operating procedures remain governing. The intended result is a professional reference and practical toolkit that improves commissioning consistency, piping-system integrity, documentation quality, operational readiness, and safe transition from construction to reliable facility operation.

Rp499.000
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Commissioning

COMMISSIONING QA AND QC

**Commissioning Quality Assurance and Quality Control Handbook Version 1.0** presents a comprehensive and practical framework for managing quality assurance (QA) and quality control (QC) throughout the commissioning and handover of industrial facilities. The handbook establishes a structured approach for maintaining quality governance, controlling risks, verifying requirements, documenting inspection results, and demonstrating that completed systems satisfy approved engineering, contractual, regulatory, and project requirements. The handbook begins with quality governance and risk-based Inspection and Test Plan (ITP) development, followed by systems completion planning, turnover strategy, dossier management, material receipt, identification, storage, preservation, and traceability. It explains how quality controls continue through mechanical completion, discipline-specific pre-commissioning, functional testing, integrated start-up, performance testing, reliability assurance, and final handover. Technical discussions address design and procurement controls, vendor documentation, fabrication and delivery interfaces, construction verification, field installation, heavy-equipment considerations, inspection activities, testing requirements, quality records, punch-list management, and turnover documentation. Worked calculation examples and practical scenarios help demonstrate how engineering requirements can be translated into measurable field verification activities. The handbook emphasizes traceability throughout the project lifecycle. Each approved requirement should be traceable to an applicable inspection or test activity, while every field result should be supported by appropriate records and ultimately incorporated into the final turnover evidence. This approach helps establish confidence that equipment, systems, and facilities have been properly constructed, inspected, tested, and prepared for safe operation. Additional sections address material and documentation requirements, maintenance and reliability routines, Non-Conformance Report (NCR) management, root-cause evaluation, corrective and preventive actions, quality surveillance, inspection records, and lessons learned. The framework also considers interfaces between engineering, procurement, construction, commissioning, operations, vendors, contractors, and project management. The handbook is applicable across oil and gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine projects. However, project-specific codes, contracts, approved specifications, vendor requirements, statutory regulations, and client procedures remain controlling. Accordingly, this handbook is intended as a robust methodological guide and practical quality toolkit. It supports engineers, inspectors, commissioning personnel, construction teams, project managers, and quality professionals in achieving controlled, traceable, documented, and reliable project completion and final handover.

Rp499.000
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Children

GENERAL ELECTRICAL COMMON HANDBOOK FOR CHILDREN

General Electrical Common Handbook for Children is an educational engineering handbook designed to introduce young learners to the fundamental principles, equipment, materials, design practices, construction activities, testing procedures, commissioning processes, and maintenance requirements used in electrical engineering. The handbook follows the major subject areas of a professional electrical engineering handbook while presenting the information in a clear, structured, and child-friendly format. The handbook begins with electrical system architecture and basic load assessment, helping children understand how electrical power is generated, distributed, controlled, and supplied to different equipment and facilities. It introduces electrical diagrams, single-line diagrams, equipment symbols, circuit concepts, and basic fault-study awareness. Important safety subjects include grounding and earthing systems, lightning protection, hazardous-area electrical considerations, electrical isolation, safe working practices, and the importance of following approved procedures. Children are introduced to common electrical equipment and materials, including cables, cable trays, switchgear, transformers, motors, distribution boards, emergency power systems, batteries, generators, and lighting equipment. Each chapter provides structured learning sections covering equipment descriptions, material identification, design notes, fabrication and delivery considerations, installation requirements, construction activities, testing concepts, commissioning awareness, and maintenance principles. Technical explanations are supported by figures, diagrams, equipment illustrations, vocabulary sections, learning activities, and review questions to reinforce understanding. The handbook also explains how electrical systems are prepared for construction and installation. Children learn why drawings, specifications, material documentation, inspection procedures, quality checks, and dimensional verification are important before equipment is installed. Construction and commissioning discussions introduce concepts such as cable installation, termination, continuity checks, insulation testing, equipment inspection, functional testing, energization preparation, and system handover. Safety guidance is repeated throughout the handbook to emphasize that electricity can be dangerous and that electrical equipment should only be handled by trained and authorized personnel. The educational material therefore focuses on understanding, observation, responsibility, and safe engineering behavior rather than practical operation by children. It helps young learners build technical vocabulary, recognize common electrical equipment, understand engineering workflows, appreciate quality and safety, and develop an early interest in electrical engineering and modern infrastructure.

Rp499.000
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Children

EMERGENCY SHUTDOWN SYSTEM HANDBOOK FOR CHILDREN

Emergency Shutdown System Handbook for Children is a guided educational handbook designed to introduce young learners to the basic principles of Emergency Shutdown Systems (ESD) used in industrial facilities. The handbook explains how safety systems help move equipment, machinery, or an industrial process toward a safer condition when a serious abnormal situation is detected. Presented through simple technical explanations, illustrations, learning examples, and practical safety concepts, this children’s edition transforms complex engineering subjects into an accessible learning experience. The handbook is organized into 24 short chapters, allowing children to explore one safety concept at a time while gradually developing an understanding of how industrial protection systems work. The chapters introduce important ESD components, including field sensors, emergency pushbuttons, safety logic solvers, shutdown valves, motor trips, alarms, event records, power supplies, and interfaces with other protection and control systems. Children learn how sensors detect abnormal conditions and how safety logic evaluates signals before initiating appropriate shutdown actions. The handbook also introduces shutdown levels, cause-and-effect thinking, voting logic, alarm concepts, testing principles, maintenance activities, and basic troubleshooting awareness. These topics help learners understand that industrial safety depends not only on individual devices but also on the coordinated operation of many components. Additional chapters introduce teamwork, communication, cybersecurity awareness, functional safety, and the safety lifecycle. Children learn why engineers, technicians, operators, inspectors, and maintenance personnel must work together and follow established procedures when managing safety-critical systems. The handbook emphasizes that ESD systems are designed according to engineering requirements, risk assessments, safety principles, and approved procedures. It encourages young learners to develop careful observation, responsible decision-making, respect for safety rules, and awareness of potential hazards without encouraging them to operate or modify industrial safety equipment. To reinforce learning, the handbook includes a glossary of important technical terms, classroom activities, review questions, a quiz, and an answer key. It concludes with a **Young Safety Engineer Pledge**, encouraging children to value safety, teamwork, responsibility, learning, and protection of people and the environment. Through this structured approach, the handbook provides an engaging introduction to industrial safety engineering and helps children understand why Emergency Shutdown Systems are an important part of safe and responsible industrial operations.

Rp499.000
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Children

STANDARD PILE HEAD HANDBOOK FOR CHILDREN

Standard Pile Head Handbook for Children is a guided educational engineering handbook developed to introduce young learners to the fundamental concepts, components, construction processes, inspection activities, and safety considerations associated with pile-head systems. The handbook presents professional engineering knowledge in a simplified and visually engaging format through technical explanations, 3D learning drawings, field-reference illustrations, workflow diagrams, and practical examples. The handbook begins with an introduction to pile-head functions and load-transfer mechanisms, explaining how structural loads are transferred between columns, pile caps, piles, and supporting ground. It introduces basic design criteria, geotechnical coordination, axial load, shear force, bending moment, reinforcement requirements, anchorage, concrete confinement, and construction tolerances. Learners are also introduced to pile-head components, including reinforcement bars, anchor bolts, steel plates, stiffeners, connection details, embedded components, corrosion-protection systems, and protective coatings. The handbook explains how survey control and dimensional tolerances help ensure that pile-head locations and elevations are properly aligned with engineering drawings and structural requirements. The construction section covers 3D modeling, fabrication, cutting, drilling, welding, nondestructive testing (NDT), coating, transportation, pile cut-off, embedment installation, formwork preparation, reinforcement installation, concrete placement, curing, and heavy-equipment erection. Each activity is presented as a logical workflow so children can understand how engineering drawings are transformed into physical structures. Quality and project-control topics include Inspection and Test Plans (ITPs), inspection checkpoints, material verification, welding inspection, dimensional checks, concrete quality control, documentation, Non-Conformance Report (NCR) management, corrective actions, and final acceptance. The handbook also introduces commissioning, maintenance, inspection records, corrosion monitoring, structural condition assessment, and digital asset records. Safety-focused explanations emphasize proper equipment use, lifting operations, work-area control, personal protective equipment, and safe construction practices. By combining engineering principles with visual learning and field-oriented explanations, this handbook helps children develop an early understanding of structural engineering, construction technology, quality management, safety, and the important role of pile-head systems in supporting modern infrastructure.

Rp499.000
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Digital Resource

QA & QC DOCUMENTATION AND MDR

QA & QC DOCUMENTATION AND MDR HANDBOOK VERSION 1.0 presents an end-to-end methodology for planning, controlling, measuring, compiling, and handing over project quality documentation across the complete EPC lifecycle. The handbook defines the architecture and governance of the Master Document Register (MDR), including document numbering, metadata, revision control, status coding, review workflows, approval responsibilities, and interfaces between engineering, procurement, vendor data, fabrication, construction, inspection, testing, pre-commissioning, commissioning, and final turnover. The methodology emphasizes traceability, document completeness, controlled access, timely review, and auditable status management. Practical controls cover Vendor Data Requirement Lists, material certificates, fabrication data books, welding and NDT dossiers, civil and structural records, mechanical equipment files, piping test packs, electrical and instrumentation test records, Requests for Inspection, Inspection and Test Plans, NCR and CAR systems, calibration records, mechanical completion dossiers, commissioning records, as-built drawings, and electronic document-management workflows. The handbook also addresses data quality, document integrity, access control, backup, audit trails, retention periods, archive strategy, digital handover, and long-term retrievability. Quantitative methods are provided for MDR completeness, weighted document progress, on-time submission, first-pass acceptance, review cycle time, overdue aging, traceability coverage, and turnover readiness. Worked examples demonstrate how documentation metrics can be converted into reliable management information for prioritization, escalation, forecasting, and closeout decisions. Reusable templates support document registers, transmittals, review logs, status reports, dossier indexes, turnover checklists, and final archive records. Sector-specific guidance covers Oil & Gas, Petrochemical, Chemical, Power Plant, Water & Wastewater, Mining, Manufacturing, Offshore, Infrastructure, and Marine projects. The intended outcome is a consistent, auditable, and practical documentation-control system that ensures quality evidence remains complete, current, traceable, and retrievable. By linking physical completion with approved records, the handbook supports reliable turnover, regulatory compliance, contractual closeout, commissioning readiness, asset information integrity, and efficient transfer of project knowledge into operations and maintenance. It further strengthens coordination among quality, document control, engineering, suppliers, construction, commissioning, operations, and owners through defined responsibilities, measurable workflows, controlled approvals, structured escalation, and disciplined management of outstanding documentation.

Rp499.000
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QA/QC

NCR CORRECTIVE ACTION QA & QC

NCR CORRECTIVE ACTION QA & QC HANDBOOK VERSION 1.0 defines a closed-loop methodology for controlling nonconforming outputs and corrective actions across EPC, industrial, construction, commissioning, and maintenance activities. The handbook begins with requirement-based detection and objective evidence, then establishes containment, classification, technical disposition, controlled correction, re-inspection, root-cause analysis, corrective action, completion verification, effectiveness confirmation, and formal closure. The methodology emphasizes traceability, timely escalation, risk-based prioritization, authorized disposition, and evidence-driven decision making. Nonconformities may arise from products, processes, documents, suppliers, fabrication, construction, commissioning, operations, or maintenance, and each case is linked to the applicable requirement, responsible function, corrective action, verification record, and closure status. Technical content includes severity classification, risk prioritization, 5 Why analysis, Ishikawa diagrams, Risk Priority Number calculations, trend analysis, cost of poor quality, acceptance and disposition logic, data integrity, supplier corrective action requests, discipline-specific examples, construction controls, commissioning re-test requirements, industrial-sector tailoring, and reliability follow-up. Worked examples demonstrate how recurring issues can be converted into measurable trends and management actions. Practical guidance addresses containment, use-as-is, repair, rework, reject, concession, deviation control, root-cause verification, action ownership, due dates, effectiveness checks, and prevention of recurrence. Forms and appendices provide reusable templates for NCRs, CAPA, RCA, ITP interfaces, field release, supplier responses, commissioning re-tests, audit tracking, lessons learned, and KPI monitoring. The handbook is intended for QA/QC engineers, inspectors, discipline engineers, project managers, construction managers, supplier-quality personnel, commissioning teams, maintenance and reliability engineers, and auditors working across Oil & Gas, Petrochemical, Chemical, Power, Water & Wastewater, Mining, Manufacturing, Offshore, Infrastructure, and Marine industries. The intended outcome is a consistent, auditable, and practical nonconformance-management system that reduces repeat defects, strengthens accountability, improves supplier and contractor performance, protects quality and reliability, and converts corrective-action data into continuous improvement throughout the project and asset lifecycle. Additional guidance addresses escalation thresholds, aging analysis, recurring-defect alerts, workflow controls, approval authority, closure dashboards, audit readiness, management review, knowledge capture, and feedback into engineering standards, procurement specifications, inspection planning, maintenance strategies, and projects.

Rp499.000
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QA/QC

DIMENSIONAL INSPECTION QA QC

NDT INSPECTION HANDBOOK VERSION 1.0 provides a comprehensive Quality Assurance and Quality Control framework for non-destructive testing across Oil & Gas, Petrochemical, Chemical, Power Generation, Water & Wastewater, Mining, Manufacturing, Offshore, Marine, and Infrastructure projects. The handbook covers visual testing, penetrant testing, magnetic particle testing, ultrasonic testing, phased array, TOFD, radiographic testing, digital radiography, eddy current, ACFM/ECA, magnetic flux leakage, guided wave, leak testing, acoustic emission, infrared thermography, PMI, portable hardness, coating and wall-thickness measurement, and civil NDT techniques. Each technical chapter addresses testing principles, limitations, equipment requirements, procurement control, calibration, written procedures, Inspection and Test Plan points, field workflow, HSE, indication evaluation, acceptance logic, reporting, maintenance frequency, reliability applications, and representative calculations. Application guidance extends these methods to welds, pressure vessels, heat exchangers, piping, pipelines, storage tanks, structural steel, rotating equipment, boilers, HRSG units, power assets, and offshore or subsea systems. The methodology emphasizes qualified personnel, calibrated equipment, approved procedures, traceable consumables, controlled hold and witness points, objective interpretation, and complete digital records. Lifecycle inspection planning connects fabrication, construction, commissioning, baseline inspection, in-service monitoring, integrity assessment, repair verification, and reliability management. Practical content includes indication review, equipment-control logs, consumable records, calibration forms, inspection checklists, commissioning baselines, trend analysis, reporting templates, method-selection matrices, and worked examples. Examples are intentionally transparent and conservative, supporting engineering review without replacing project-specific acceptance calculations or approved code requirements. The intended outcome is a consistent, auditable, and technically defensible NDT system that improves defect detection, inspection reliability, traceability, and asset integrity. Project engineers shall substitute actual geometry, material properties, code limits, service conditions, and risk assumptions before final acceptance decisions. The handbook also supports coordinated decision-making among engineering, procurement, fabrication, construction, commissioning, operations, maintenance, vendors, inspectors, and owners, ensuring that NDT evidence remains available for quality release, root-cause investigation, lifecycle reliability, maintenance planning, and long-term asset management. It also strengthens inspection governance, digital traceability, repair control, technical reporting, lessons learned, and continuous improvement across complex industrial facilities and projects worldwide.

Rp499.000
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QA/QC

NDT INSPECTION

NDT INSPECTION HANDBOOK VERSION 1.0 provides a comprehensive Quality Assurance and Quality Control framework for non-destructive testing across Oil & Gas, Petrochemical, Chemical, Power Generation, Water & Wastewater, Mining, Manufacturing, Offshore, Marine, and Infrastructure projects. The handbook covers visual testing, penetrant testing, magnetic particle testing, ultrasonic testing, phased array, TOFD, radiographic testing, digital radiography, eddy current, ACFM/ECA, magnetic flux leakage, guided wave, leak testing, acoustic emission, infrared thermography, PMI, portable hardness, coating and wall-thickness measurement, and civil NDT techniques. Each technical chapter addresses testing principles, limitations, equipment requirements, procurement control, calibration, written procedures, Inspection and Test Plan points, field workflow, HSE, indication evaluation, acceptance logic, reporting, maintenance frequency, reliability applications, and representative calculations. Application guidance extends these methods to welds, pressure vessels, heat exchangers, piping, pipelines, storage tanks, structural steel, rotating equipment, boilers, HRSG units, power assets, and offshore or subsea systems. The methodology emphasizes qualified personnel, calibrated equipment, approved procedures, traceable consumables, controlled hold and witness points, objective interpretation, and complete digital records. Lifecycle inspection planning connects fabrication, construction, commissioning, baseline inspection, in-service monitoring, integrity assessment, repair verification, and reliability management. Practical content includes indication review, equipment-control logs, consumable records, calibration forms, inspection checklists, commissioning baselines, trend analysis, reporting templates, method-selection matrices, and worked examples. Examples are intentionally transparent and conservative, supporting engineering review without replacing project-specific acceptance calculations or approved code requirements. The intended outcome is a consistent, auditable, and technically defensible NDT system that improves defect detection, inspection reliability, traceability, and asset integrity. Project engineers shall substitute actual geometry, material properties, code limits, service conditions, and risk assumptions before final acceptance decisions. The handbook also supports coordinated decision-making among engineering, procurement, fabrication, construction, commissioning, operations, maintenance, vendors, inspectors, and owners, ensuring that NDT evidence remains available for quality release, root-cause investigation, lifecycle reliability, maintenance planning, and long-term asset management. It also strengthens inspection governance, digital traceability, repair control, technical reporting, lessons learned, and continuous improvement across complex industrial facilities and projects worldwide.

Rp499.000
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QA/QC

INSULATION REFRACTORY FIREPROOFING QA & QC

INSULATION, REFRACTORY AND FIREPROOFING QA & QC HANDBOOK VERSION 1.0 provides a structured quality assurance and quality control framework for thermal and acoustic insulation, corrosion-under-insulation prevention, refractory linings, spray-applied and intumescent passive fire protection, and firestopping across EPC and industrial projects. The handbook covers engineering design basis, material specification, procurement surveillance, receiving inspection, storage, substrate release, installation control, testing, field release, commissioning, maintenance, and digital traceability. The methodology emphasizes verified design requirements, compatible materials, controlled storage, approved installation procedures, qualified personnel, calibrated inspection equipment, environmental monitoring, traceable records, and objective acceptance evidence. Practical guidance addresses insulation thickness, jacketing, vapor barriers, weatherproofing, CUI prevention, refractory anchors, joints, mixing, placement, curing, dry-out, passive fire-protection preparation, thickness control, density, adhesion, firestopping interfaces, defect management, repair, and final release. Technical content includes heat-transfer fundamentals, cylindrical thermal resistance, condensation and dew-point checks, refractory lining design considerations, anchor spacing and joint control, curing and dry-out requirements, passive fire-protection system selection, section-factor concepts, fireproofing thickness, density and adhesion testing, inspection frequencies, maintenance planning, and worked examples. These examples support engineering review and inspection judgment while final acceptance remains governed by approved project specifications, manufacturer requirements, contractual obligations, and applicable standards. The handbook also provides guidance for Inspection and Test Plans, material receiving, preservation, substrate inspection, installation checklists, test records, NCR control, punch closure, commissioning handover, maintenance frequencies, and digital quality records. Sector application guidance covers Oil & Gas, Petrochemical, Chemical, Power, Water & Wastewater, Mining, Manufacturing, Offshore, Marine, and Infrastructure projects. The intended outcome is a consistent, auditable, and practical QA/QC system that reduces heat loss, condensation, CUI risk, refractory failure, passive fire-protection defects, rework, and premature deterioration. By connecting engineering requirements with field inspection, traceability, testing, and lifecycle maintenance, the handbook supports safer facilities, improved reliability, complete turnover records, and sustained asset protection throughout operation. Reusable templates for inspection requests, environmental records, material controls, repair logs, release certificates, maintenance schedules, and reliability feedback further support standardized implementation and continuous improvement programs.

Rp499.000
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QA/QC

COATING PAINTING CORROSION QA & QC

COATING PAINTING CORROSION QA & QC HANDBOOK VERSION 1.0 provides an integrated quality assurance and quality control framework for protective coating, painting, and corrosion-protection activities on steel structures, piping, equipment, tanks, and industrial assets. The handbook covers corrosion mechanisms, coating-system selection, surface preparation, environmental monitoring, material receiving and storage, mixing and application control, wet and dry film thickness, holiday detection, adhesion testing, defect assessment, repair, Inspection and Test Plans, field release, commissioning, maintenance, and industrial-sector adaptations. The methodology emphasizes surface condition, environmental control, material traceability, qualified personnel, calibrated inspection equipment, approved procedures, controlled application stages, and objective acceptance evidence. Practical guidance addresses abrasive blasting, cleanliness, surface profile, soluble salts, dust contamination, dew point, relative humidity, coating pot life, induction time, recoat intervals, stripe coating, application methods, curing, DFT measurement, discontinuity testing, adhesion verification, and final inspection. Each chapter integrates technical theory, practical inspection points, representative material requirements, checklists, calculation notes, quality records, maintenance considerations, and unique engineering illustrations. Worked examples address paint quantity, theoretical spreading rate, dry-film-thickness acceptance, dew-point margin, abrasive consumption, inspection sampling, coating loss factors, and repair-area estimation. These examples support inspection judgment and planning while final acceptance remains governed by approved project specifications, manufacturer instructions, contractual requirements, and applicable standards. The handbook also provides guidance for NCR management, coating defects, repair procedures, preservation, field release, punch closure, commissioning interfaces, maintenance frequencies, corrosion monitoring, and lifecycle reliability. Reusable templates support material receiving, environmental records, blasting inspection, coating application, DFT measurement, holiday testing, adhesion testing, NCR control, release documentation, and final handover. The intended outcome is a consistent, auditable, and practical coating QA/QC system that reduces corrosion risk, coating failures, rework, and premature degradation. It supports Oil & Gas, Petrochemical, Chemical, Power, Water & Wastewater, Mining, Manufacturing, Offshore, Infrastructure, and Marine projects while enabling adaptation into project-specific procedures, ITPs, inspection forms, and maintenance programs.

Rp499.000
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QA/QC

QA & QC CABLE INSTALLATION AND TESTING

QA & QC CABLE INSTALLATION AND TESTING HANDBOOK VERSION 1.0 provides an end-to-end quality assurance and quality control framework for power, control, instrumentation, and communication cable systems across EPC and industrial projects. The handbook covers quality management, applicable standards, cable construction, procurement, receiving inspection, storage, drum management, route readiness, cable trays, conduits, underground installation, cable pulling, LV, MV and HV systems, fiber optics, glands, firestopping, terminations, earthing and bonding, tagging, field inspection, testing, commissioning, maintenance, sector applications, and engineering calculations. Each chapter is structured as a field-ready package comprising an overview, design and material basis, applicable standards, Inspection and Test Plan requirements, calculation or engineering notes, installation procedures, inspection checklists, test methods, acceptance records, maintenance guidance, reliability considerations, and sector-specific applications. Unique 3D engineering schematics and field-style visualizations support understanding of installation sequences, interfaces, inspection points, and common field conditions. The methodology emphasizes traceability, approved procedures, qualified personnel, calibrated test equipment, controlled installation stages, and objective acceptance evidence. Practical guidance addresses drum handling, cable identification, bend radius, pulling tension, segregation, support spacing, gland selection, termination quality, torque control, insulation resistance, continuity, sheath testing, fiber testing, earthing, fire sealing, punch management, and final release. Appendices provide reusable master ITPs, material receiving forms, drum, cutting and pulling records, installation checklists, termination and torque sheets, electrical test forms, formula sheets, procurement matrices, maintenance schedules, sector matrices, NCR, punch and release forms, standards references, and abbreviations. The intended outcome is a consistent, auditable, and practical cable QA/QC system that reduces installation defects, prevents damage, strengthens traceability, improves testing quality, supports safe energization, and enables reliable handover. The handbook can be tailored into project-specific procedures and work packs by replacing generic acceptance statements with approved project criteria, controlled drawings, photographs, and document numbers for each project. Application guidance supports Oil & Gas, Petrochemical, Chemical, Power Generation, Water & Wastewater, Mining, Manufacturing, Offshore, Infrastructure, and Marine projects, while lifecycle controls connect procurement, construction, commissioning, operations, maintenance, reliability feedback, and continuous improvement.

Rp499.000
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QA/QC

STRUCTURAL STEEL FABRICATION QA & QC

STRUCTURAL STEEL FABRICATION QA & QC HANDBOOK VERSION 1.0 presents an integrated framework for Quality Assurance and Quality Control of structural steel fabrication across the complete project lifecycle. It covers design review, procurement, material receiving, identification and traceability, cutting, drilling, forming, fit-up, welding, nondestructive testing, bolting, dimensional inspection, surface preparation, protective coating, packing, transportation, site receiving, erection, commissioning interfaces, maintenance, and reliability. The methodology emphasizes traceability, approved procedures, qualified personnel, calibrated equipment, controlled inspection stages, and objective acceptance evidence. Material certificates, heat numbers, weld maps, inspection records, NDT results, bolt records, coating data, dimensional reports, and release status are linked so that fabricated components remain traceable from raw material receipt through erection and final handover. Technical content includes material and welding control guidance, Inspection and Test Plan concepts, technical tables, inspection checklists, calculation notes, worked examples, maintenance frequencies, quality metrics, NCR workflows, document control, and Manufacturing Data Record requirements. Practical topics include member identification, fit-up tolerances, welding surveillance, repair control, bolt installation, alignment, dimensional surveys, surface cleanliness, coating thickness, packing, preservation, and transport damage prevention. Worked examples support engineering review and inspection judgment while final acceptance remains governed by approved project specifications, drawings, contractual requirements, and applicable code editions. Reusable forms and registers support material receiving, welding, NDT, dimensional inspection, bolting, coating, NCR management, release, erection, and final dossier compilation. Industry application matrices address Oil & Gas, Petrochemical, Chemical, Power Plant, Water & Wastewater, Mining, Manufacturing, Offshore, Infrastructure, and Marine projects. The intended outcome is a consistent, auditable, and practical structural-steel QA/QC system that prevents defects, detects deviations early, reduces rework, preserves material and fabrication traceability, and provides defensible evidence that steelwork has been fabricated, delivered, erected, and accepted in accordance with approved project requirements. The framework also supports reliability, maintainability, lessons learned, and continuous improvement throughout the asset lifecycle. It further supports coordination among engineering, procurement, fabrication, construction, quality, logistics, commissioning, vendors, and owners through standardized responsibilities, inspection points, records, and defined release criteria.

Rp499.000
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QA/QC

ROTATING EQUIPMENT QA & QC

ROTATING EQUIPMENT QA & QC HANDBOOK VERSION 1.0 provides a comprehensive framework for Quality Assurance and Quality Control of rotating equipment used across Oil & Gas, Petrochemical, Chemical, Power Plant, Water & Wastewater, Mining, Manufacturing, Offshore, Marine, and Infrastructure facilities. The handbook covers design review, material and component control, supplier quality, fabrication, inspection, NDE, performance testing, preservation, transportation, installation, alignment, commissioning, operation, maintenance, and reliability. The methodology emphasizes prevention, traceability, objective evidence, qualified personnel, calibrated instruments, approved procedures, controlled inspection points, and timely resolution of deviations. Major rotating-equipment families are addressed in dedicated chapters, including pumps, compressors, turbines, motors, generators, fans, blowers, gearboxes, mixers, and packaged machinery. Additional sections cover lubrication, seals, bearings, couplings, vibration, condition monitoring, HSE, documentation, and industry-specific applications. Practical content includes technical tables, material-control guidance, master Inspection and Test Plan concepts, inspection checklists, field-release records, commissioning forms, maintenance frequencies, engineering calculation notes, and worked examples. Typical calculations and verification topics include shaft alignment, vibration levels, bearing condition, equipment efficiency, lubrication requirements, thermal growth, performance deviation, and reliability indicators. These examples support engineering review and inspection judgment while final acceptance remains governed by approved project specifications, vendor documentation, contractual requirements, and applicable standards. The handbook also links vendor inspection, site receiving, preservation, installation, pre-commissioning, performance testing, punch management, defect resolution, commissioning, and final turnover so equipment status remains visible throughout the lifecycle. The intended outcome is a repeatable, auditable, and practical QA/QC system that prevents defects, detects deviations early, preserves material and inspection traceability, produces defensible quality records, improves commissioning readiness, and supports reliable equipment performance. By integrating engineering, procurement, quality, construction, commissioning, operations, maintenance, vendors, and asset-management teams, the framework helps organizations reduce rework, improve equipment integrity, strengthen lifecycle documentation, and support safe, efficient, and dependable rotating-equipment operation. Reusable forms, inspection records, preservation logs, calibration registers, test reports, release certificates, maintenance matrices, and reliability feedback tools support consistent implementation, auditability, lessons learned, continuous improvement, and transfer of quality evidence to operations.

Rp499.000
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QA/QC

PRESSURE VESSEL QA AND QC

PRESSURE VESSEL QA AND QC HANDBOOK VERSION 1.0 provides a comprehensive end-to-end framework for quality assurance and quality control of pressure vessels throughout design, procurement, fabrication, inspection, testing, transportation, erection, commissioning, and lifecycle support. The handbook covers code and design-basis control, material procurement and receiving, forming and dimensional control, welding qualification and production, visual inspection, RT, UT, PAUT, TOFD, MT, PT, PMI, hardness testing, PWHT, internals, pressure and leak testing, coating and lining, Manufacturer Data Records, preservation, heavy transport, site receiving, erection, field welding, pre-commissioning, commissioning, in-service inspection interfaces, repair governance, reliability, and risk-based inspection concepts. The methodology emphasizes traceability, risk-informed inspection, qualified personnel, calibrated equipment, approved procedures, controlled hold and witness points, and objective acceptance evidence. Material identity, weld status, NDE results, heat-treatment records, dimensional checks, test results, coating condition, and release status are linked so that vessel quality remains auditable from raw material receipt through final handover. Each chapter includes a purpose statement, inspection and control plan, field execution sequence, technical checklist, required records, calculation or decision note, and industry application perspective. Worked examples and calculation notes support engineering review, inspection judgment, and independent checking while final acceptance remains governed by approved drawings, project specifications, statutory requirements, vendor documentation, and applicable code editions. Appendices provide procurement and material forms, welding and NDE checklists, ITP and release forms, pressure-test records, commissioning documentation, maintenance matrices, sector guidance, and worked calculations. The intended outcome is a consistent, auditable, and practical pressure-vessel QA/QC system that reduces defects and rework, strengthens material and weld traceability, protects pressure-boundary integrity, supports safe testing and commissioning, and preserves reliable quality evidence throughout the equipment lifecycle. Distinct 3D illustrations, inspection guidance, technical tables, and discussion examples support understanding, while approved engineering documents always govern actual work. Each chapter begins on a new page, and all tables and visuals are formatted within controlled page margins. Application guidance supports Oil & Gas, Petrochemical, Chemical, Power, Water, Mining, Manufacturing, Offshore, Infrastructure, and Marine projects worldwide.

Rp499.000
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QA/QC

PIPELINE CONSTRUCTION QA QC

PIPELINE CONSTRUCTION QA AND QC HANDBOOK VERSION 1.0 provides a comprehensive, field-oriented framework for quality assurance and quality control of onshore, cross-country, station, offshore, and marine pipeline construction. The handbook integrates management controls with practical inspection activities covering material receiving, route preparation, trenching, stringing, bending, welding, nondestructive examination, field-joint coating, cathodic protection, lowering-in, crossings, backfilling, hydrostatic testing, pre-commissioning, mechanical completion, commissioning interfaces, and final quality records. The methodology emphasizes traceability, risk-based inspection, approved procedures, qualified personnel, calibrated equipment, controlled hold and witness points, and objective acceptance evidence. Material identity, weld status, NDT results, coating condition, test records, and release status are linked throughout construction so that each installed pipeline segment remains traceable from receipt through final handover. Technical content includes calculation notes and worked relationships for welding heat input, bending strain, trench volume, hydrotest hoop stress, buoyancy, bolt load, coating thickness, electrical resistance, and quality-performance metrics. These equations are presented as practical screening, checking, and verification tools. Final design, construction, and acceptance calculations remain governed by approved engineering documents, project specifications, service conditions, statutory requirements, and applicable code editions. Quality documentation is addressed through Inspection and Test Plans, receiving inspection records, weld maps, NDT reports, coating inspection forms, calibration registers, hydrotest packages, field-release records, NCR and CAPA controls, punch lists, mechanical-completion certificates, and commissioning forms. The handbook also connects construction quality records with integrity baseline data, corrosion-control information, asset registers, maintenance planning, and future inspection programs. The intended outcome is a consistent, auditable, and practical pipeline QA/QC system that reduces defects and rework, improves material and weld traceability, strengthens pressure-boundary integrity, supports safe testing and commissioning, and preserves reliable quality evidence throughout the pipeline operating life. Application guidance supports Oil & Gas, Petrochemical, Chemical, Power Generation, Water & Wastewater, Mining, Manufacturing, Offshore, Infrastructure, and Marine projects. Additional guidance addresses contractor coordination, environmental controls, preservation, repair management, survey records, integrity handover, lessons learned, and reliability feedback, helping teams maintain construction quality across pipeline environments and conditions.

Rp499.000
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QA/QC

WELDING INSPECTION

WELDING INSPECTION HANDBOOK VERSION 1.0 provides a comprehensive framework for planning, executing, verifying, and documenting welding inspection activities across EPC, fabrication, construction, offshore, marine, and industrial projects. The handbook connects welding engineering fundamentals with practical QA/QC controls and explains how design requirements, material specifications, welding procedures, and applicable codes are translated into inspection checkpoints, objective evidence, and acceptance records. The technical scope covers welding processes, base-material and consumable control, WPS, PQR, welder and welding-operator qualification, joint preparation, fit-up, preheat, interpass control, in-process monitoring, visual and dimensional inspection, PT, MT, UT, RT, PAUT, TOFD, PWHT, PMI, hardness testing, metallurgy, common weld discontinuities, repair welding, pressure testing, commissioning interfaces, documentation, maintenance, and reliability. The methodology emphasizes traceability, competent personnel, calibrated equipment, approved procedures, controlled inspection stages, and clear acceptance responsibility. Practical guidance addresses weld mapping, consumable storage, electrode control, joint identification, heat treatment records, NDE coordination, defect evaluation, repair cycles, release status, punch management, and final Manufacturing Data Record compilation. Worked examples demonstrate heat-input calculation, carbon-equivalent screening, basic NDE geometry, sampling concepts, repair-rate monitoring, and inspection trending. These examples are intentionally separated from formal acceptance requirements so they can be used as educational and verification notes without being confused with contractual acceptance values. Final acceptance must always follow approved project specifications, procedures, service conditions, statutory requirements, and governing code editions. The handbook also provides reusable inspection checklists, welding registers, NDE records, PWHT forms, PMI and hardness records, repair logs, pressure-test documentation, release forms, and turnover templates. The intended outcome is a consistent, auditable, and practical welding inspection system that reduces weld defects and rework, improves material and weld traceability, strengthens pressure-boundary integrity, supports safe testing and commissioning, and provides reliable quality evidence for final handover and long-term asset performance. Additional guidance addresses inspection planning, hold and witness points, inspector competency, calibration control, contractor coordination, root-cause analysis, lessons learned, and reliability feedback, helping project teams maintain welding quality from procurement and fabrication through construction, commissioning, operation, and maintenance.

Rp499.000
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QA/QC

MATERIAL RECEIVING INSPECTION

Material Receiving Inspection Handbook Version 1.0 provides an integrated quality-management framework for inspecting, accepting, quarantining, preserving, storing, and releasing materials and equipment received for EPC and industrial projects. The handbook connects procurement requirements with field verification and auditable records so that each physical item, its documentation, inspection status, storage condition, and final use remain fully traceable throughout the project lifecycle. The methodology covers pre-receipt planning, purchase-order and packing-list verification, material identification, quantity checks, visual and dimensional inspection, certificate review, damage assessment, preservation verification, tagging, segregation, quarantine control, nonconformance management, warehouse release, and final material issue. Particular attention is given to matching received items against approved specifications, drawings, data sheets, material certificates, vendor documentation, shipping records, and project acceptance criteria. Technical guidance addresses inspection of piping materials, structural steel, mechanical equipment, electrical items, instrumentation, cables, valves, rotating equipment, packaged units, bulk materials, coatings, consumables, spare parts, and preservation-sensitive items. Practical controls include Material Receiving Inspection Reports, Material Inspection Requests, inspection checklists, traceability registers, quarantine tags, NCR records, preservation logs, storage-location records, and release documentation. Worked examples and calculation notes support quantity reconciliation, dimensional checks, shelf-life monitoring, preservation intervals, inventory accuracy, sampling concepts, and status reporting. The handbook also addresses calibrated measuring equipment, inspector competence, controlled storage environments, hazardous materials, damage reporting, vendor claims, and coordination among procurement, logistics, warehouse, quality, engineering, construction, commissioning, and suppliers. The intended outcome is a consistent, auditable, and practical receiving-inspection system that prevents incorrect, damaged, undocumented, or noncompliant materials from entering construction and commissioning. By linking procurement data, physical inspection, document verification, preservation, storage, and controlled release, the handbook helps project teams reduce rework, protect material integrity, maintain traceability, improve inventory confidence, and support reliable project execution, handover, and long-term asset performance. Application guidance supports Oil & Gas, Petrochemical, Chemical, Power Generation, Water & Wastewater, Mining, Manufacturing, Offshore, Infrastructure, and Marine projects, with adaptable acceptance criteria, inspection frequencies, documentation requirements, and storage controls based on contract, service criticality, and governing standards.

Rp499.000
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QA/QC

QUALITY MANAGEMENT SYSTEM

QUALITY MANAGEMENT SYSTEM (QMS) HANDBOOK VERSION 1.0 presents an integrated framework for managing quality across engineering, procurement, construction, fabrication, installation, testing, commissioning, handover, and operational support. The handbook is aligned with the process approach, risk-based thinking, evidence-based decision making, and continual-improvement principles commonly applied in ISO 9001-based management systems while remaining practical for EPC and industrial project execution. The technical scope covers project quality planning, document control, engineering verification, procurement quality, supplier surveillance, material traceability, fabrication, welding and NDE, civil works, mechanical equipment, piping, electrical systems, instrumentation, construction inspection, Inspection and Test Plans, commissioning, metrology, NCR and CAR management, audits, KPIs, statistical process control, root-cause analysis, competence management, maintenance, reliability, and digital quality records. The methodology emphasizes defined responsibilities, controlled processes, measurable acceptance criteria, objective evidence, traceability, risk-based controls, and timely corrective action. Quality requirements are linked to design, procurement, fabrication, installation, inspection, testing, and final acceptance so that compliance can be demonstrated throughout the project lifecycle. Worked examples demonstrate practical use of quality indices, first-pass yield, supplier performance scoring, risk priority numbers, rework rate, process capability indices such as Cpk, traceability completeness, readiness indices, calibration suitability, and reliability metrics. These examples support performance monitoring, trend analysis, decision making, and continual improvement while requiring project-specific verification. The appendices provide adaptable forms, matrices, registers, checklists, audit tools, inspection records, KPI templates, NCR/CAR formats, calibration controls, competence records, and quality dashboards that can be incorporated into project procedures and controlled templates. The intended outcome is a consistent, auditable, and improvement-oriented QMS that reduces defects and rework, strengthens accountability, improves supplier and contractor performance, preserves traceability, supports reliable commissioning, and delivers complete evidence for final handover and operational support across complex EPC and industrial projects. Application guidance supports Oil & Gas, Petrochemical, Chemical, Power Generation, Water & Wastewater, Mining, Manufacturing, Offshore, Infrastructure, and Marine sectors, enabling organizations to tailor the framework to contractual requirements, statutory obligations, owner standards, risks, and lifecycle objectives without weakening governance or continual improvement.

Rp499.000
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QA/QC

QA AND QC ENGINEERING MANAGEMENT

QA AND QC ENGINEERING MANAGEMENT HANDBOOK VERSION 1.0 provides an integrated framework for managing quality assurance and quality control across multidisciplinary EPC, industrial, manufacturing, offshore, infrastructure, and marine projects. The handbook covers quality governance, design assurance, procurement quality, supplier surveillance, material traceability, Inspection and Test Plans, shop inspection, welding, non-destructive testing, civil works, mechanical equipment, piping, electrical systems, instrumentation, coatings, construction quality, commissioning, nonconformity management, audits, KPI analytics, handover, and reliability. The methodology applies a risk-based process approach in which quality controls are aligned with equipment and system criticality, contractual acceptance criteria, statutory obligations, approved specifications, and objective evidence. Responsibilities, inspection stages, hold and witness points, document requirements, verification methods, and release conditions are defined to maintain consistent quality throughout engineering, procurement, fabrication, construction, commissioning, and final handover. Technical content includes worked examples for first-pass yield, NCR rate, rework cost, on-time inspection performance, capability measures, quality trends, and other practical indicators used to support management decisions. Sample tables, registers, dashboards, checklists, and forms are provided as adaptable templates rather than mandatory contractual formats, allowing organizations to tailor them to project requirements and quality-management systems. The handbook also addresses supplier performance, inspection coordination, corrective and preventive action, root-cause analysis, audit planning, lessons learned, turnover documentation, and reliability feedback. Application guidance is provided for Oil & Gas, Petrochemical, Chemical, Power Generation, Water & Wastewater, Mining, Manufacturing, Offshore, Infrastructure, and Marine sectors. The intended outcome is a disciplined, auditable, and evidence-based QA/QC management system that prevents quality escapes, identifies deviations early, preserves traceability, reduces rework, strengthens accountability, and demonstrates fitness for intended service. By integrating engineering, procurement, construction, commissioning, operations, vendors, contractors, and quality teams, the handbook supports reliable execution, compliant acceptance, complete turnover records, and continuous improvement throughout the project and asset lifecycle. Practical implementation further includes quality planning, inspection resource forecasting, calibration control, document-status monitoring, escalation routes, management reviews, digital quality records, and performance benchmarking to improve visibility, consistency, decision-making, and organizational learning across future projects.

Rp499.000
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QA/QC

TANK FABRICATION QA & QC INSPECTION

TANK FABRICATION QA & QC INSPECTION HANDBOOK VERSION 1.0 provides a comprehensive reference for Quality Assurance and Quality Control activities associated with fabricated and field-erected storage tanks throughout the complete EPC and asset lifecycle. The handbook covers project quality planning, applicable codes and standards, material control, shop fabrication, field erection, welding, non-destructive testing, dimensional inspection, hydrostatic testing, coating, documentation, transportation, commissioning, maintenance, and reliability. The methodology emphasizes traceability, risk-informed inspection, evidence-based acceptance, qualified personnel, calibrated instruments, approved procedures, and controlled release points. Each inspection activity is linked to drawings, specifications, material certificates, welding procedures, Inspection and Test Plans, vendor documentation, and project acceptance criteria so that quality decisions remain technically justified and auditable. Technical chapters include representative inspection points, material verification, plate identification, weld traceability, fit-up control, welding surveillance, NDT requirements, dimensional surveys, shell roundness, verticality, settlement checks, hydrotest readiness, leak checks, coating surface preparation, dry-film thickness verification, and final release. Calculation notes and worked examples support inspection judgment for geometry, volume, weld-related parameters, settlement trends, coating consumption, and test preparation while requiring verification against project-specific criteria. Practical appendices provide reusable templates for ITPs, material receiving reports, weld maps, welding records, NDT reports, dimensional surveys, hydrotest documentation, coating inspection, release certificates, commissioning records, punch lists, maintenance planning, and turnover dossiers. The intended outcome is a consistent, auditable, and practical tank QA/QC system that reduces fabrication and erection defects, improves traceability, strengthens pressure and containment integrity, supports safe commissioning, and enhances final handover quality. The handbook is intended for QA/QC inspectors, welding inspectors, engineers, contractors, fabricators, NDT personnel, coating inspectors, commissioning teams, consultants, and owner representatives responsible for delivering safe, compliant, reliable, and maintainable storage tanks across industrial projects. Application guidance supports Oil & Gas, Petrochemical, Chemical, Power, Water & Wastewater, Mining, Manufacturing, Offshore, Infrastructure, and Marine projects. Additional guidance addresses preservation, corrosion monitoring, repair control, calibration status, contractor coordination, document closeout, lessons learned, and reliability feedback so inspection evidence remains useful throughout operation and maintenance.

Rp499.000
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QA/QC

INSTRUMENT QA & QC INSPECTION

Instrument QA & QC Inspection Handbook Version 1.0 provides a comprehensive end-to-end framework for quality assurance and quality control of field instrumentation and associated systems throughout EPC and industrial projects. The handbook covers project quality governance, codes and specifications, engineering deliverables, procurement, vendor surveillance, receiving inspection, tagging, pressure, temperature, flow and level measurement, control and shutdown valves, analyzers, fire and gas systems, tubing, cables, junction boxes, grounding, intrinsic safety, instrument air, field installation, calibration, loop checking, DCS/PLC/ESD/SIS interfaces, functional testing, hazardous-area compliance, pre-commissioning, commissioning, punch and NCR closeout, maintenance, reliability, and sector-specific adaptation. Each technical chapter integrates seven practical layers: engineering purpose and associated risks; components and material control; Inspection and Test Plan requirements and inspection stages; installation and construction verification; calculation notes and worked examples; pre-commissioning and commissioning flow; and maintenance, reliability, and industrial-sector considerations. This structure connects approved engineering requirements with observable field conditions, traceable records, and objective acceptance evidence. Practical guidance addresses material verification, calibration status, instrument installation, impulse and pneumatic tubing, cable termination, grounding, enclosure protection, hazardous-area integrity, loop folders, logic interfaces, functional checks, punch management, nonconformance control, field release, and final turnover. Distinct 3D engineering schematics, installation reference renders, and technical QA/QC flow diagrams support each chapter. The appendices provide reusable master inspection-plan content, material-control records, calibration and inspection forms, worked calculations, maintenance-frequency guidance, field-release documents, NCR and punch controls, commissioning handover forms, industrial-sector matrices, and glossary references. The intended outcome is a consistent, auditable, and practical instrumentation QA/QC system that reduces defects and rework, improves traceability, strengthens functional integrity, supports safe commissioning, and enhances final handover quality across Oil & Gas, Petrochemical, Chemical, Power, Water & Wastewater, Mining, Manufacturing, Offshore, Infrastructure, and Marine projects. Acceptance criteria presented in this handbook remain subordinate to approved project specifications, procedures, vendor requirements, statutory obligations, and governing code editions. It also promotes coordinated inspection planning among engineering, procurement, construction, commissioning, vendors, inspectors, and operations, ensuring quality evidence remains complete throughout execution and handover.

Rp499.000
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QA/QC

ELECTRICAL QA & QC INSPECTION

ELECTRICAL QA & QC INSPECTION HANDBOOK VERSION 1.0 provides a structured field and project reference for electrical quality assurance, quality control, inspection, testing, pre-commissioning, commissioning, and final handover across EPC, industrial, infrastructure, offshore, and marine projects. The handbook covers transformers, switchgear, motor control centers, generators, UPS and battery systems, motors, cables, cable support systems, terminations, earthing, lightning protection, lighting, hazardous-area installations, heat tracing, protection relays, metering, and associated electrical interfaces. The methodology combines inspection theory with practical implementation and emphasizes traceability, evidence-based acceptance, calibrated instruments, qualified personnel, approved procedures, and controlled release points. Each activity is linked to applicable drawings, specifications, data sheets, vendor documents, Inspection and Test Plans, and project requirements so that field acceptance remains technically justified and auditable. Practical guidance includes material specifications, procurement controls, receiving inspection, preservation, ITP logic, calibration requirements, test methods, sample acceptance criteria, field inspection sequencing, punch management, common nonconformities, corrective actions, field release controls, and completion dossier requirements. Technical sections also include calculation notes and worked examples covering insulation resistance, continuity, voltage drop, cable sizing checks, earth resistance, protection settings, battery capacity, equipment loading, and other electrical QA/QC decisions. The handbook addresses pre-commissioning and commissioning interfaces, including energization readiness, protection verification, interlocks, functional checks, system walkdowns, test records, and final handover documentation. Maintenance-frequency guidance and reliability considerations are included to support lifecycle continuity after project completion. The intended outcome is a consistent, auditable, and practical electrical QA/QC system that reduces defects and rework, strengthens equipment and installation traceability, improves testing quality, supports safe energization, and enhances final handover. The handbook is intended for inspectors, engineers, supervisors, contractors, vendors, commissioning teams, consultants, and owner representatives responsible for delivering safe, compliant, reliable, and maintainable electrical systems across Oil & Gas, Petrochemical, Chemical, Power, Water & Wastewater, Mining, Manufacturing, Offshore, Infrastructure, and Marine projects. Reusable checklists, inspection forms, test sheets, calibration registers, NCR records, commissioning documents, and turnover templates support standardized field execution, documentation quality, accountability, activities, and continuous improvement.

Rp499.000
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QA/QC

CIVIL QA & QC INSPECTION

CIVIL QA & QC INSPECTION HANDBOOK VERSION 1.0 provides a comprehensive framework for quality assurance and quality control of civil works across EPC, industrial, building, infrastructure, offshore, and marine projects. The handbook covers quality organization, document control, material control, Inspection and Test Plan implementation, earthworks, concrete, reinforcement, structural steel, masonry, waterproofing, surveying, piling, underground utilities, roads and pavements, laboratory testing, NCR and corrective action, handover, maintenance, and sector-specific application. Each technical chapter is structured around ten field-ready topics: scope and responsibilities; applicable standards and specifications; inspection planning; materials and equipment; construction sequence; testing and acceptance; calculation notes; checklists and records; nonconformance control; and reliability and sector application. This structure helps field teams connect engineering requirements with practical inspection activities and objective quality evidence. Technical references include widely used ISO, ACI, and ASTM frameworks together with project specifications, approved drawings, procedures, and contractual requirements. The handbook deliberately does not replace project-approved acceptance criteria. Whenever an illustrative example differs from a project specification, statutory requirement, approved procedure, or governing code, the project-specific requirement takes precedence. Practical guidance addresses material receiving, reinforcement inspection, formwork, concrete placement, testing, curing, dimensional control, survey verification, compaction, piling records, waterproofing checks, roadworks, laboratory documentation, punch management, field release, and turnover readiness. Calculation notes and worked examples support inspection judgment while maintaining the need for engineering verification. The final appendices provide reusable templates for ITPs, Material Inspection Requests, Requests for Inspection, inspection checklists, laboratory tests, NCRs, survey records, handover forms, and maintenance records. The intended outcome is a consistent, auditable, and practical civil QA/QC system that reduces defects and rework, improves traceability, strengthens accountability, supports safe construction, and enables complete turnover dossiers. The handbook is intended for inspectors, engineers, supervisors, contractors, laboratories, consultants, and owner representatives responsible for delivering compliant and reliable civil works. It also promotes coordinated quality planning among engineering, procurement, construction, commissioning, surveying, laboratories, subcontractors, and document-control teams, ensuring that inspection status and acceptance evidence remain visible throughout project execution.

Rp499.000
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QA/QC

PIPING QA & QC INSPECTION

PIPING QA & QC INSPECTION HANDBOOK VERSION 1.0 presents an integrated quality assurance and quality control framework for metallic and nonmetallic industrial piping systems used across process, utility, power, offshore, and infrastructure projects. The handbook covers design-input verification, piping materials and components, procurement and source inspection, receiving and preservation, welding engineering, fit-up and welding inspection, NDT, PMI, hardness and ferrite testing, PWHT, shop fabrication, field installation, support and nozzle alignment, flange management, buried piping, coating and insulation, pressure testing, cleaning, reinstatement, mechanical completion, commissioning, and in-service integrity interfaces. The methodology emphasizes traceability, evidence-based acceptance, risk-informed inspection, and disciplined control of quality records. Practical guidance addresses material identification, weld traceability, dimensional inspection, inspection notifications, release notes, hold and witness points, pressure-test packs, punch control, mechanical-completion certification, commissioning walkdowns, NCR and CAPA management, Manufacturing Data Record compilation, and digital handover. Technical sections include calculation notes and worked examples for pipe geometry, measurement, welding heat input, hydrotest volume, flange load concepts, and corrosion-rate trending. These examples are intended to support inspection judgment and independent verification while requiring final acceptance against project-specific specifications, approved procedures, service conditions, vendor requirements, statutory obligations, and governing codes. The handbook also provides Inspection and Test Plan structures, weld and NDT registers, material traceability tools, preservation controls, dimensional records, test documentation, and reusable quality templates. Applications are discussed for Oil & Gas, Petrochemical, Chemical, Power Plant, Water & Wastewater, Mining, Manufacturing, Offshore, Infrastructure, and Marine projects. The intended outcome is a consistent, auditable, and practical piping inspection system that reduces defects and rework, strengthens material and weld traceability, improves pressure-boundary integrity, supports safe commissioning, and enhances final handover quality. Each project should adapt the generic controls into specific acceptance criteria, inspection frequencies, hold and witness points, and record formats based on contract requirements, jurisdiction, service hazard, and applicable code editions. Additional guidance addresses inspector competence, calibration control, fabrication interfaces, preservation, field change management, turnover readiness, reliability feedback, and lessons learned across piping activities worldwide.

Rp499.000
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QA/QC

QA & QC INSPECTOR FIELD PROJECT

QA & QC INSPECTOR FIELD PROJECT HANDBOOK VERSION 1.0 provides an integrated field-inspection framework for quality assurance and quality control across EPC and construction projects. The handbook covers document hierarchy, Inspection and Test Plan development, material receiving and traceability, civil works, structural steel, piping, welding, NDT, static and rotating equipment, tanks, valves, electrical systems, instrumentation, coatings, insulation, pressure testing, cleaning, mechanical completion, commissioning, calibration, NCR management, redline and as-built control, turnover dossiers, vendor inspection, heavy-lifting interfaces, quality audits, and reliability feedback. The methodology emphasizes disciplined inspection planning, evidence-based acceptance, traceable records, clear hold and witness points, calibrated instruments, qualified personnel, and timely resolution of deficiencies. Technical content includes worked engineering examples, basic formulas, acceptance decision logic, procurement-control considerations, inspection records, maintenance frequencies, and lifecycle controls. These elements help inspectors connect field observations with approved drawings, specifications, procedures, codes, material certificates, vendor documentation, and project acceptance criteria. Practical guidance addresses inspection requests, material identification, weld traceability, NDT coordination, dimensional verification, pressure-test readiness, coating checks, equipment installation, cable and instrument inspection, punch management, field release, commissioning support, and final dossier preparation. Appendices provide calculation notes, example ITP and checklist structures, material and procurement matrices, industrial-sector application guidance, commissioning forms, and reliability reference tables. The handbook supports Oil & Gas, Petrochemical, Chemical, Power Plant, Water & Wastewater, Mining, Manufacturing, Offshore, Infrastructure, and Marine projects. It is intended for QA/QC inspectors, engineers, supervisors, contractors, vendors, commissioning teams, and owner representatives responsible for verifying field quality and documented compliance. The intended outcome is a consistent, auditable, and practical inspection system that reduces defects and rework, improves traceability, strengthens accountability, supports safe commissioning, and improves final handover quality. Because contractual, client, statutory, and regulatory requirements vary between projects, users must verify the applicable project specifications, approved procedures, vendor requirements, and governing code editions before making any final acceptance decision. It also promotes early identification of quality risks, structured escalation, corrective-action follow-up, lessons learned, and continuous improvement throughout project execution and operations.

Rp499.000
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QA/QC

INSPECTION AND TEST PLAN

Inspection and Test Plan Handbook Version 1.0 provides an integrated framework for planning, executing, witnessing, recording, verifying, and releasing quality inspections across the complete EPC asset lifecycle. The handbook treats the Inspection and Test Plan (ITP) as a risk-informed control document that links approved technical requirements, specifications, codes, drawings, procedures, and acceptance criteria to observable inspection activities and objective quality records. The technical scope covers ITP architecture, quality roles and responsibilities, inspection-point classification, document control, vendor surveillance, receiving inspection, material traceability, preservation, civil and structural works, welding and NDE controls, piping fabrication and testing, static and rotating equipment, tanks, coatings, electrical systems, instrumentation, telecommunications, HVAC, fire protection, lifting equipment, heavy equipment, offshore and marine works, mechanical completion, pre-commissioning, commissioning, NCR and CAR management, reliability, maintenance, sampling methods, calculation examples, and digital ITP implementation. The methodology emphasizes clearly defined hold, witness, review, surveillance, and acceptance points supported by approved procedures, calibrated instruments, qualified personnel, traceable materials, verified records, and authorized release. Inspection status is connected with fabrication, construction, field release, turnover, commissioning readiness, and final acceptance so that quality evidence remains visible throughout execution. Practical content includes worked examples, inspection logic, acceptance criteria, sampling concepts, quality metrics, preservation frequencies, field-release controls, punch management, and digital reporting. The appendices provide reusable master templates for ITPs, inspection requests, material receiving, welding and NDE, pressure testing, electrical and instrument commissioning, NCR/CAR and punch control, field release, preservation schedules, sector matrices, terminology, and document registers. The intended outcome is a consistent, auditable, and risk-based inspection system that improves quality assurance, reduces defects and rework, strengthens supplier and contractor accountability, and supports safe commissioning and reliable asset handover. By linking requirements, inspection activities, records, nonconformance control, and release decisions, the handbook provides EPC teams with a practical reference for maintaining technical compliance, traceability, and lifecycle quality across industrial and infrastructure projects. It also supports coordinated quality planning among engineering, procurement, construction, commissioning, operations, vendors, inspectors, and owners through standardized evidence requirements.

Rp499.000
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Procurement

VENDOR DRAWING DOCUMENT REVIEW

Vendor Drawing and Document Review Handbook Version 1.0 provides a structured, lifecycle-oriented framework for planning, receiving, reviewing, commenting, approving, tracking, controlling, and archiving vendor engineering deliverables throughout EPC projects. The handbook connects technical review quality with procurement schedule performance, fabrication readiness, inspection status, construction release, commissioning completeness, final handover, and long-term asset reliability. The methodology is built around five essential controls: a complete Vendor Data Requirement List; disciplined transmittal, numbering, and revision management; competent discipline and interdisciplinary review; clear document disposition and comment closure; and auditable final dossier compilation. Technical review covers drawings, datasheets, calculations, material specifications, quality records, Inspection and Test Plans, fabrication documents, shipping records, commissioning procedures, operation and maintenance manuals, and final as-built information. Worked examples and review notes demonstrate how to verify design envelopes, dimensions, material grades, equipment ratings, interfaces, maintainability, document numbering, revision history, contractual requirements, and compliance evidence. Practical guidance also addresses interdisciplinary coordination, supplier response tracking, technical queries, deviations, comment resolution, QA/QC hold and witness points, procurement expediting, construction redlines, Factory Acceptance Test documentation, field release, commissioning records, maintenance frequencies, and industrial-sector applications. The handbook emphasizes that vendor documentation is not an administrative archive but a critical engineering control system. Each deliverable must remain traceable from contractual requirement through submission, review, approval, fabrication use, inspection, installation, commissioning, as-built status, and operational handover. Controlled status codes, response deadlines, revision histories, and responsibility matrices strengthen accountability and schedule visibility. It also provides reusable review checklists, document registers, comment sheets, VDRL tracking formats, transmittal logs, approval matrices, dossier indexes, and closeout templates for consistent implementation across projects and organizations. The intended outcome is a consistent and auditable vendor-document management process that reduces rework, late fabrication changes, installation conflicts, quality escapes, commissioning delays, and missing asset information. By integrating engineering, procurement, quality, construction, commissioning, document control, vendors, and operations, the handbook supports timely decisions, reliable technical records, stronger project execution, and dependable lifecycle information for operation, maintenance, modification, and future asset management.

Rp499.000
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Procurement

PROCUREMENT COST CONTROL AND COMMERCIAL MANAGEMENT

PROCUREMENT COST CONTROL AND COMMERCIAL MANAGEMENT HANDBOOK VERSION 1.0 presents a comprehensive framework for controlling procurement cost and commercial exposure from early estimating through final contract closeout. The handbook integrates cost breakdown structures, procurement schedules, bid evaluation, contract pricing, forecasting, change control, invoice certification, logistics, quality, claims, supplier performance, commissioning obligations, and commercial closeout within one traceable management system. The technical methodology includes should-cost modeling, total cost of ownership, landed-cost analysis, price escalation, foreign-exchange calculations, accruals, estimate-to-complete and estimate-at-completion forecasting, contingency logic, expected monetary value, and simplified quantitative risk analysis. Worked examples demonstrate how commercial assumptions, supplier quotations, logistics inputs, payment terms, and risk allowances can be converted into transparent and auditable decision notes. The control philosophy is based on complete traceability. Every procurement value should be attributable to a defined scope, budget, contract, approved change, shipment, receipt, inspection record, invoice, payment status, and forecast assumption. Leading indicators are emphasized so that emerging exposure, supplier trends, claims, currency impacts, logistics costs, and forecast deviations can be identified and managed before they become irreversible overruns. The handbook contains 26 detailed technical chapters, each beginning on a new page, supported by unique 3D engineering drawings, technical flow diagrams, representative field-style visualizations, technical tables, calculation notes, checklists, inspection records, ITP concepts, field-release forms, commissioning records, and maintenance and reliability guidance. Industrial application guidance covers Oil & Gas, Petrochemical, Chemical, Power, Water & Wastewater, Mining, Manufacturing, Offshore, Infrastructure, and Marine projects. Seven implementation appendices provide reusable forms, registers, templates, worked examples, lifecycle controls, and glossary references. The intended outcome is a disciplined, evidence-based commercial management system that improves cost visibility, forecast reliability, accountability, supplier control, change governance, and decision quality while protecting project value from procurement planning through final settlement and closeout. By linking engineering scope, procurement commitments, physical delivery, quality evidence, payment certification, risk exposure, and commissioning obligations, the framework helps project teams detect commercial threats early, implement corrective action, preserve entitlement, and maintain defensible records throughout execution.

Rp499.000
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Procurement

IMPORT EXPORT CUSTOMS CLEARANCE EPC PROJECT

IMPORT EXPORT CUSTOMS CLEARANCE EPC PROJECT HANDBOOK VERSION 1.0 provides an end-to-end framework for managing import, export, and customs-clearance activities across the EPC project lifecycle. It links commodity master data and HS classification with permits, certificates of origin, customs valuation, Incoterms, shipping documentation, declarations, duty and tax calculations, bonded and temporary-import procedures, project cargo, dangerous goods, multimodal transport, port operations, inspection, broker management, expediting, demurrage control, audit, digital customs, AEO and security requirements, and final project closeout. The methodology is based on early data readiness, single-source master data, segregation of duties, evidence-based approvals, and clearly defined milestone gates. Each shipment is controlled from purchase-order release through document preparation, export clearance, transportation, import declaration, customs inspection, duty settlement, delivery, field release, and final reconciliation. This approach supports consistency between commercial terms, logistics planning, customs compliance, and required-on-site dates. Technical content includes worked examples for landed-cost calculation, duty and tax exposure, customs valuation, freight and insurance allocation, temporary-import scenarios, demurrage risk, and schedule impact. The examples demonstrate how assumptions, classification decisions, documentary accuracy, and timing can influence both project cost and schedule performance. Practical implementation is supported by forms and checklists for document validation, shipment release, customs-entry review, inspection, discrepancy management, field release, commissioning spares, bonded inventory, return shipment, and closeout. Guidance also addresses customs brokers, freight forwarders, authorities, vendors, logistics providers, procurement teams, and site interfaces. Application guidance is provided for Oil & Gas, Petrochemical, Chemical, Power Plant, Water & Wastewater, Mining, Manufacturing, Offshore, Infrastructure, and Marine projects. The intended outcome is a practical, auditable, and compliant customs-management system that reduces clearance delays, prevents avoidable penalties, improves landed-cost forecasting, strengthens documentation quality, and protects construction and commissioning schedules. By integrating customs planning with procurement, logistics, finance, quality, and project controls, the handbook helps EPC teams achieve predictable material flow, compliant cross-border movement, and disciplined project closeout. It also supports audit readiness, regulatory traceability, duty optimization, license tracking, shipment visibility, escalation management, and continuous improvement across projects.

Rp499.000
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Procurement

PROCUREMENT RISK AND CHANGE MANAGEMENT

PROCUREMENT RISK AND CHANGE MANAGEMENT HANDBOOK VERSION 1.0 establishes a comprehensive framework for identifying, assessing, responding to, monitoring, and reporting procurement risks while providing a disciplined process for initiating, evaluating, approving, implementing, and closing procurement changes throughout the EPC lifecycle. The handbook integrates commercial, supplier, technical, cost, schedule, quality, logistics, compliance, cybersecurity, contractual, and lifecycle considerations within a unified governance structure. The methodology emphasizes early risk identification, clear ownership, evidence-based assessment, timely escalation, and controlled decision-making. Core quantitative methods include qualitative risk scoring, expected monetary value, weighted supplier risk scoring, contingency analysis, schedule exposure, change-value reconciliation, and risk trend monitoring. Worked examples demonstrate how these methods can support management decisions while maintaining project-specific verification, contractual compliance, and appropriate approval authority. Governance topics include risk ownership, delegation of authority, escalation thresholds, Change Control Board operation, purchase-order amendments, supplier deviations, technical queries, commercial impacts, claims evidence, audit trails, baseline control, approval workflows, and integrated reporting. Particular attention is given to maintaining traceability between the original requirement, identified risk or change, technical evaluation, cost and schedule impact, approval decision, implementation status, and final closeout. The handbook addresses interfaces across engineering design, procurement, fabrication, inspection, expediting, shipping, logistics, installation, construction, commissioning, and operational handover. Practical appendices provide reusable risk registers, change-request forms, evaluation templates, inspection records, field-release forms, commissioning forms, maintenance and reliability checklists, KPI structures, and sector application matrices. Application guidance supports Oil & Gas, Petrochemical, Chemical, Power Plant, Water & Wastewater, Mining, Manufacturing, Offshore, Infrastructure, and Marine projects. The intended outcome is a practical and auditable procurement management system that improves decision quality, predictability, accountability, cost and schedule control, supplier performance, and organizational learning. By linking risk and change decisions with objective evidence, authorized approvals, implementation controls, and performance monitoring, the handbook helps EPC teams reduce uncontrolled change, protect commercial entitlement, manage uncertainty, strengthen governance, and support continuous improvement from procurement planning through final closeout.

Rp499.000
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Procurement

FACTORY ACCEPTANCE TEST (FAT)

FACTORY ACCEPTANCE TEST (FAT) HANDBOOK VERSION 1.0 provides a structured and multidisciplinary framework for defining, preparing, executing, witnessing, recording, evaluating, and closing Factory Acceptance Test activities for equipment, systems, and packaged units used across major EPC and industrial projects. The handbook applies to Oil & Gas, Petrochemical, Chemical, Power, Water & Wastewater, Mining, Manufacturing, Offshore, Infrastructure, and Marine facilities. The methodology establishes a clear acceptance hierarchy linking purchase orders, approved specifications, data sheets, drawings, vendor documents, Inspection and Test Plans, applicable standards, and agreed test procedures. FAT readiness is verified through document approval, material traceability, fabrication completion, calibration status, test-equipment availability, safety preparation, and closure of prerequisite inspection points before formal testing begins. Technical coverage includes material certification, fabrication quality, dimensional control, pressure testing, leak testing, mechanical performance, electrical testing, instrumentation verification, control-system simulation, interlock and alarm checks, package integration, functional testing, HSE controls, measurement uncertainty, calibration, punch-list management, NCR and deviation control, documentation, preservation, packing, and shipping release. Worked examples and calculation notes support engineering review, test-result interpretation, acceptance decisions, and independent verification while requiring final compliance with project-specific requirements. The handbook also defines interfaces between FAT, Site Acceptance Testing, commissioning, start-up, reliability monitoring, and lifecycle feedback. Practical records include FAT agendas, readiness checklists, witness and hold-point records, inspection sheets, test reports, calibration records, punch registers, deviation logs, shipping-release forms, and manufacturing data records. Sector-specific application matrices, standard templates, maintenance-frequency guidance, and reusable checklists support consistent implementation across different equipment types and industries. The intended outcome is a controlled, auditable, and evidence-based FAT process that identifies defects before shipment, protects quality and schedule, improves commissioning readiness, strengthens supplier accountability, and ensures equipment is released only after agreed technical and documentation requirements have been satisfactorily demonstrated, verified, recorded, and formally accepted. Additional guidance addresses test organization, stakeholder responsibilities, vendor coordination, test sequencing, temporary arrangements, retesting, lessons learned, preservation after FAT, document turnover, and release coordination so manufacturing evidence remains available for construction and operational teams.

Rp499.000
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Procurement

SHIPPING AND TRANSPORTATION MANAGEMENT

SHIPPING AND TRANSPORTATION MANAGEMENT HANDBOOK VERSION 1.0 provides a comprehensive framework for planning, controlling, executing, and documenting project cargo movements from vendor works through final site delivery and handover. The handbook covers cargo classification, export packing, preservation, route engineering, road, rail, sea, and air transportation, heavy haulage, SPMT operations, port coordination, crane interfaces, lashing, sea fastening, customs clearance, contracts, insurance, HSE, Inspection and Test Plans, schedule and cost control, digital tracking, receiving, installation support, preservation, and commissioning interfaces. The methodology emphasizes early logistics planning, accurate cargo data, defined responsibilities, engineered transport solutions, regulatory compliance, and evidence-based control. Each shipment is managed through documented stages covering readiness, packing, lifting, loading, securing, transportation, unloading, receipt, inspection, storage, and final release. Critical cargo movements are supported by route surveys, lifting studies, transport drawings, method statements, permits, contingency planning, and formal approvals. Technical sections include calculation notes and worked examples for cargo dimensions, gross and chargeable weight, axle loading, center of gravity, lifting loads, crane utilization, transport capacity, sea-fastening forces, transit duration, cost forecasting, and logistics KPIs. Practical guidance also addresses material and equipment specifications, inspection records, preservation requirements, maintenance frequencies, damage reporting, insurance documentation, and receiving controls. The handbook is applicable to oil and gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine projects. Reusable forms, checklists, inspection records, logistics registers, shipment trackers, route-survey formats, receiving reports, and closeout documents support consistent implementation and auditability. The intended outcome is a safe, traceable, cost-controlled, and schedule-aligned logistics system that minimizes transport damage, delay, customs disruption, handling risk, and material loss. By linking procurement, expediting, logistics, quality, construction, commissioning, and site receiving, the handbook helps project teams deliver complex equipment and materials to the required location in acceptable condition and with complete supporting documentation. It is designed as a practical, print-ready reference and training resource for EPC logistics professionals managing complex industrial cargo. Additional guidance covers emergency response, weather monitoring, stakeholder communication, claims, and lessons.

Rp499.000
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Procurement

VENDOR PREQUALIFICATION VENDOR SELECTION

Vendor Prequalification and Vendor Selection Handbook Version 1.0 provides a comprehensive end-to-end framework for evaluating, approving, selecting, onboarding, monitoring, and requalifying suppliers across EPC and industrial projects. The handbook covers governance, sourcing strategy, vendor registration, legal and integrity review, financial assessment, technical capability, quality and HSE systems, manufacturing capacity, experience verification, factory audits, cybersecurity, commercial readiness, risk evaluation, weighted scoring, bidder-list approval, RFQ controls, technical and commercial bid evaluation, due diligence, award recommendation, onboarding, performance monitoring, and requalification. The methodology emphasizes transparent criteria, documented evidence, proportional risk assessment, and traceable approval. Each vendor is assessed against defined requirements for technical competence, financial strength, manufacturing resources, management systems, delivery capability, compliance, past performance, quality, safety, cybersecurity, and commercial suitability. Weighted-scoring models and risk matrices support structured comparison while ensuring that mandatory requirements and critical risks are not hidden by aggregate scores. Practical content includes calculation notes, weighted-scoring examples, vendor risk classification, material and procurement controls, Inspection and Test Plan concepts, inspection forms, field-release and commissioning interfaces, maintenance and reliability feedback, sector application matrices, and detailed checklists. The handbook also addresses factory audits, reference verification, sanctions and integrity screening, capacity assessment, subcontractor control, qualification validity periods, performance feedback, corrective action, suspension, and requalification. Each chapter combines process explanation with practical records and implementation guidance, and is structured to support consistent use across organizations. Final appendices provide reusable templates for registration, questionnaires, audit reports, evaluation sheets, scoring matrices, approved vendor lists, bid-review records, due-diligence checklists, performance scorecards, and requalification registers. The intended outcome is an auditable and repeatable vendor-management system that improves supplier quality, reduces procurement risk, strengthens bidder-list decisions, supports fair competition, and increases confidence in supplier performance from sourcing through project closeout and future requalification. The framework is adaptable to Oil & Gas, Petrochemical, Chemical, Power, Water & Wastewater, Mining, Manufacturing, Offshore, Infrastructure, and Marine projects, linking supplier qualification decisions with engineering, procurement, quality, logistics, construction, commissioning, operations, and long-term reliability requirements across the asset lifecycle.

Rp499.000
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Procurement

PURCHASE ORDER AND CONTRACT ADMINISTRATION

Purchase Order and Contract Administration Handbook Version 1.0 defines a practical and integrated framework for administering purchase orders and contracts throughout the complete EPC project lifecycle. The handbook establishes disciplined control principles for delegated authority, document hierarchy, scope definition, pricing, taxes, Incoterms, bonds, guarantees, insurance, payment, variations, claims, delay, expediting, quality, vendor documentation, logistics, site administration, HSE and compliance, disputes, completion, warranty, and contractual closeout. The methodology emphasizes traceability, timely decision-making, contractual compliance, and preservation of commercial entitlement. Each chapter explains key controls, role interfaces, approval requirements, communication protocols, documentation expectations, and escalation paths. Practical examples, checklists, tables, and representative technical visuals support application by procurement, contracts, engineering, project controls, quality, logistics, construction, commissioning, finance, legal, and project-management teams. Technical sections include worked procurement and contract calculations covering price escalation, retention, liquidated damages, earned-value style progress measurement, currency exposure, payment forecasting, variation valuation, and total evaluated cost. These examples are intended to support transparent administration and independent checking while requiring project-specific verification against the governing contract, commercial terms, applicable law, and approved project procedures. The handbook also addresses supplier and contractor performance monitoring, milestone control, document and data requirements, expediting interfaces, inspection and release status, shipping and delivery obligations, site services, claims records, warranty tracking, and final account settlement. The sector application matrix explains how administration practices may be adapted for Oil & Gas, Petrochemical, Chemical, Power, Water & Wastewater, Mining, Manufacturing, Offshore, Infrastructure, and Marine projects. The intended outcome is a consistent, auditable, and contract-compliant administration system that protects schedule, cost, quality, safety, and commercial rights while enabling timely supplier and contractor performance. By linking contractual obligations with objective records, approvals, progress evidence, and formal correspondence, the handbook helps EPC teams reduce ambiguity, control change, manage risk, resolve issues earlier, and achieve orderly completion, warranty transition, and final closeout. Additional guidance covers kick-off meetings, correspondence registers, commitment tracking, securities management, audit readiness, lessons learned, and handover of remaining obligations to operations teams and maintenance.

Rp499.000
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Procurement

MATERIAL RECEIVING AND WAREHOUSING

Material Receiving and Warehousing Handbook Version 1.0 presents a comprehensive framework for controlling EPC project materials from pre-receipt planning through final project closeout. The handbook integrates engineering requirements, quality assurance, logistics coordination, safe handling, preservation, warehouse design, inventory accuracy, construction support, commissioning needs, and custody control into one disciplined material-management system. The methodology is based on status gates, traceability, and controlled release. Every incoming item is verified against purchase orders, packing lists, shipping documents, and approved material specifications; inspected against project acceptance criteria; assigned a unique identity and storage location; preserved according to equipment or material class; and released only after acceptance requirements are satisfied. Nonconforming, damaged, incomplete, or unidentified materials are physically and digitally segregated until disposition is approved. Material issues are controlled through approved reservations, work packs, material requests, or construction demand to reduce loss, misuse, deterioration, and premature exposure. Technical sections include storage-capacity calculations, warehouse utilization, stacking and load concepts, inventory accuracy, dock-to-stock performance, preservation intervals, shelf-life control, stock reconciliation, cycle counting, and KPI measurement. Worked examples demonstrate how calculations and status controls can be applied while maintaining project-specific verification. Practical guidance also covers Inspection and Test Plan logic, receiving inspection forms, material specifications, preservation records, release documentation, and audit trails. The handbook addresses heavy-lift receiving, oversized equipment, hazardous materials, environmentally controlled storage, WMS and ERP transactions, barcode and digital tracking, stock audits, warehouse safety, commissioning spares, surplus materials, returns, and final closeout. The intended outcome is a reliable and auditable material-control system that ensures the correct material is received, identified, protected, stored, located, issued, and documented at the required time. By linking physical custody with digital records and acceptance evidence, the handbook helps EPC teams improve inventory visibility, reduce material loss and damage, support construction productivity, protect equipment reliability, and achieve orderly commissioning and final handover. It also supports coordination among engineering, procurement, quality, logistics, construction, commissioning, vendors, warehouse personnel, and owners through standardized responsibilities, escalation routes, closeout requirements, and records.

Rp499.000
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Procurement

PROCUREMENT SCHEDULE AND PROGRESS MONITORING

PROCUREMENT SCHEDULE AND PROGRESS MONITORING HANDBOOK VERSION 1.0 provides an integrated framework for planning, measuring, forecasting, and controlling procurement progress throughout the EPC project lifecycle. The handbook covers work breakdown structures and coding systems, baseline schedule development, vendor schedules, milestone weighting, earned value principles, S-curves, key performance indicators, expediting, inspection, logistics, site material tracking, delay analysis, recovery planning, risk management, change control, digital systems, and procurement closeout. The methodology is based on evidence-driven progress measurement. Reported progress must be supported by dated, auditable records and a clearly defined completion rule for each activity or milestone. Engineering deliverables, purchase order milestones, vendor document status, material availability, fabrication progress, inspection results, shipping readiness, logistics movements, warehouse receipt, and site availability are linked through a consistent coding structure so that procurement status can be reconciled with the project schedule. Technical sections explain weighted milestone systems, planned versus actual progress, earned value concepts, schedule variance, forecast completion, S-curve interpretation, progress indices, procurement KPIs, and recovery indicators. Worked examples demonstrate how supplier and logistics data can be converted into reliable management information for forecasting, prioritization, escalation, and corrective action. The handbook also provides guidance for vendor schedule review, baseline validation, progress cut-off rules, expediting interfaces, inspection readiness, material status reporting, delay identification, recovery schedules, change impacts, risk registers, digital dashboards, and closeout reporting. Standardized registers, progress templates, evidence logs, and KPI formats support transparent reporting and auditability. The intended outcome is a disciplined procurement control system that improves schedule visibility, forecast reliability, supplier accountability, and management response. By linking measurable progress with objective evidence, the handbook helps EPC teams identify emerging delays early, protect required-on-site dates, coordinate engineering, quality, logistics, construction, and commissioning interfaces, and maintain reliable procurement status through final delivery and closeout. The framework can be adapted across major industrial and infrastructure sectors while preserving traceability, consistency, and decision quality. It also supports lessons learned, performance benchmarking, trend analysis, governance reviews, and continuous improvement across EPC procurement programs.

Rp499.000
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Procurement

PROCUREMENT EXPEDITING FOR EPC PROJECT

PROCUREMENT EXPEDITING FOR EPC PROJECT HANDBOOK VERSION 1.0 provides a comprehensive professional framework for managing procurement expediting across the complete engineering, procurement, and construction lifecycle. The handbook covers expediting strategy, organization, schedule integration, purchase order handover, vendor communication, document control, material and subvendor monitoring, fabrication surveillance, inspection, quality coordination, logistics, site delivery, construction and commissioning interfaces, KPI reporting, risk recovery, digital systems, supplier performance, and procurement closeout. The methodology integrates technical, commercial, quality, logistics, and schedule information into a disciplined expediting process. Purchase order milestones, engineering deliverables, material availability, subvendor activities, fabrication progress, inspection status, testing, packing, shipping, and required-on-site dates are monitored through measurable indicators and evidence-based reporting. Particular attention is given to early identification of slippage, critical constraints, recovery actions, escalation, and coordination between vendors, EPC teams, inspectors, logistics providers, construction, and commissioning personnel. Technical sections include practical formulas for weighted progress, forecast completion, schedule variance, expediting priority scoring, risk exposure, and supplier performance. Worked examples demonstrate how raw supplier data can be converted into useful management information for forecasting, prioritization, and corrective action. Technical tables describe typical evidence requirements, inspection records, material controls, preservation requirements, documentation status, and escalation thresholds. The handbook is equipment-agnostic and can be adapted for static equipment, rotating machinery, packaged units, electrical equipment, instrumentation, piping bulk, structural steel, cables, and other project materials. Applications are discussed across Oil & Gas, Petrochemical, Chemical, Power Plant, Water & Wastewater, Mining, Manufacturing, Offshore, Infrastructure, and Marine sectors. The intended outcome is a transparent, proactive, and auditable expediting system that improves delivery predictability, strengthens supplier accountability, reduces schedule risk, and supports timely construction and commissioning. By linking supplier evidence, progress measurement, inspection readiness, logistics status, and recovery planning, the handbook helps project teams identify emerging delays early, implement effective corrective actions, maintain traceable records, and achieve controlled procurement closeout and reliable final delivery. It also supports vendor intervention, milestone protection, contractual follow-up, lessons learned, and continuous improvement across future EPC procurement activities.

Rp499.000
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Procurement

PROCUREMENT PLANNING EPC PROJECT

PROCUREMENT PLANNING EPC PROJECT HANDBOOK VERSION 1.0 presents a comprehensive framework for planning and controlling procurement activities across the complete engineering, procurement, and construction lifecycle. The handbook covers procurement governance, sourcing strategy, market engagement, tendering, bid evaluation, purchase order formation, supplier engineering, inspection, expediting, manufacturing control, logistics, warehousing, site material control, spare parts, long-lead items, package equipment, bulk materials, construction subcontracts, risk, claims, cost control, analytics, digital procurement, commissioning support, and procurement closeout. The methodology is built around a structured stage-gate model that integrates engineering maturity, commercial readiness, supplier capability, manufacturing status, quality requirements, logistics constraints, and required-on-site dates. Each procurement package is progressively reviewed against defined entry and exit criteria so that technical, commercial, schedule, quality, and risk conditions remain aligned before commitments are made or materials are released. Technical sections include calculation notes, worked examples, supplier and bid evaluation methods, procurement progress measurement, lead-time analysis, material specification guidance, preservation requirements, inspection and test concepts, logistics planning, inventory control, and cost monitoring. Practical examples illustrate how procurement decisions can be supported by measurable criteria while maintaining project-specific verification, approvals, and contractual requirements. The handbook also provides inspection and commissioning forms, preservation and maintenance procedures, material-control records, checklists, technical flow diagrams, sector application matrices, and reusable planning templates. Guidance is included for coordinating engineering, procurement, quality, logistics, construction, commissioning, project controls, contracts, vendors, and owners. The intended outcome is a disciplined, transparent, and auditable procurement planning system that improves package readiness, reduces late purchasing, supports better supplier selection, protects required-on-site dates, strengthens material availability, and minimizes schedule disruption. The framework is applicable across oil and gas, petrochemical, chemical, power, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine projects, helping teams achieve reliable supply, effective cost control, and smoother construction, commissioning, and final handover. Additional guidance addresses procurement schedules, responsibility matrices, early market engagement, vendor data, change control, customs planning, surplus materials, warranties, lessons learned, and performance KPIs for continuous improvement across future EPC projects.

Rp499.000
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Procurement

EPC PROJECT PROCUREMENT MANAGEMENT

EPC PROJECT PROCUREMENT MANAGEMENT HANDBOOK VERSION 1.0 presents a comprehensive framework for managing procurement activities throughout the engineering, procurement, and construction lifecycle. The handbook covers procurement governance, work packaging, requisition development, supplier qualification, RFQ preparation, technical and commercial bid evaluation, purchase order administration, vendor document control, expediting, quality surveillance, factory acceptance testing, material traceability, logistics, customs, warehousing, construction interface management, spare parts, supplier performance, claims, cost control, risk management, ethics, digital procurement, KPI reporting, and procurement closeout. The methodology integrates technical, commercial, schedule, quality, logistics, and risk considerations within a controlled procurement process. Practical guidance addresses package strategy, bidder selection, technical compliance, commercial normalization, vendor data requirements, manufacturing progress, inspection points, preservation, shipping readiness, receiving inspection, storage conditions, material issue, and final supplier closeout. The framework emphasizes traceable decisions, clear responsibilities, timely communication, approved documentation, and evidence-based acceptance. Technical notes include weighted supplier scoring, total evaluated cost, procurement progress measurement, On-Time-In-Full performance, risk-priority assessment, material specification control, inspection and test records, preservation requirements, maintenance planning, and reliability considerations. Worked examples illustrate how quantitative methods can support vendor selection, progress monitoring, expediting priorities, logistics decisions, and performance evaluation while requiring project-specific verification and approval. The handbook also provides guidance for coordination among engineering, procurement, quality, logistics, construction, commissioning, project controls, contracts, vendors, and owners. Standardized registers, evaluation formats, inspection records, expediting reports, shipping documents, warehouse controls, supplier scorecards, claims records, and closeout checklists support consistent implementation. The intended outcome is a disciplined, transparent, and auditable procurement system that delivers the correct materials and equipment, at the required quality, cost, location, and time. The handbook is applicable across oil and gas, petrochemical, chemical, power, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine projects, supporting reliable construction, commissioning, operations, and final handover. Additional sections address procurement planning, long-lead equipment, change control, warranty obligations, surplus materials, lessons learned, cybersecurity of digital purchasing platforms, regulatory compliance, and continuous improvement, strengthening governance and accountability from sourcing through final contract closure.

Rp499.000
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Commissioning

COMMISSIONING CLOSE-OUT AND HANDOVER

COMMISSIONING CLOSE-OUT AND HANDOVER HANDBOOK VERSION 1.0 presents an integrated methodology for converting field completion into documented operational readiness, formal handover, and contractual acceptance. The handbook covers governance, systemization, mechanical completion, punch management, pre-commissioning and commissioning records, performance testing, reliability runs, turnover dossiers, as-built documentation, QA/QC closure, HSE readiness, operations training, spare parts, O&M manuals, CMMS data, warranties, regulatory evidence, custody transfer, and formal acceptance certificates. The methodology is built around a practical evidence-gate model. For each system, package, or acceptance milestone, the required acceptance criteria are defined, objective evidence is generated, records are verified, residual defects are identified and controlled, authorized approvals are obtained, and responsibility is transferred in a traceable manner. This approach strengthens accountability and reduces the risk of incomplete turnover, undocumented deviations, unresolved punch items, and post-start-up disputes. Technical content includes worked examples for weighted completion, document completeness, punch aging, performance deviation, reliability-run availability, and close-out status measurement. Practical guidance also addresses dossier indexing, final documentation review, system boundaries, outstanding work, preservation release, training records, spare-parts transfer, warranty registers, asset data, maintenance information, and final close-out reporting. Appendices provide ready-to-adapt registers, checklists, certificates, turnover forms, punch logs, document-control tools, training records, performance-test records, warranty trackers, and acceptance templates. These materials are intended for project-specific customization in accordance with contract requirements, owner standards, governing codes, and regulatory obligations. The intended result is a single lifecycle reference for EPC contractors, owners, commissioning teams, operations, QA/QC, HSE, document control, maintenance, and project management personnel. By connecting physical completion, verified evidence, documentation, commercial obligations, and operational responsibility, the handbook helps minimize latent defects, missing information, unclosed commitments, and post-start-up disruption while supporting a safe, auditable, efficient, and defensible transition from project execution to stable operation and final acceptance. It further supports coordinated closure of vendor obligations, temporary facilities, permits, interface actions, calibration status, inspection releases, consumables, special tools, and lessons learned, ensuring that remaining risks are visible, assigned, prioritized, monitored, and resolved before project completion.

Rp499.000
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Commissioning

START-UP AND INITIAL RUN PLANT

START-UP AND INITIAL RUN PLANT HANDBOOK VERSION 1.0 presents a comprehensive framework for planning, verifying, executing, controlling, and documenting plant start-up from construction completion through stable initial operation and operational handover. The handbook covers governance, organization, HSE controls, systemization, PSSR and RFSU readiness, utilities, electrical energization, control and safety systems, piping preparation, static and rotating equipment, thermal systems, purging, feed introduction, process-unit operation, relief and flare systems, environmental utilities, storage and loading, production ramp-up, troubleshooting, reliability, documentation, and industrial-sector adaptation. The methodology emphasizes progressive readiness, controlled energy introduction, approved procedures, verified system boundaries, calibrated instruments, competent personnel, clear communication, and traceable acceptance evidence. Each start-up stage is linked to prerequisites such as mechanical completion, punch status, utility availability, alarm and trip verification, equipment preservation release, operating procedures, emergency preparedness, vendor support, and operator readiness. Technical content includes practical guidance for initial circulation, flushing, inerting, leak checking, warm-up, equipment rotation, utility balancing, feed introduction, process stabilization, operating-envelope control, alarm response, trip recovery, temporary operating conditions, and early-life monitoring. Representative calculations and worked examples support start-up planning, capacity checks, thermal conditions, equipment loading, utility demand, and performance trending while requiring final verification against project-specific design data and approved operating limits. The handbook also addresses interface management among engineering, construction, commissioning, operations, HSE, quality, maintenance, vendors, and project controls. Standardized checklists, test records, shift logs, readiness reviews, punch registers, start-up reports, troubleshooting records, and turnover dossiers provide auditable evidence of progress and acceptance. The intended outcome is a safe, evidence-based, and repeatable start-up process that reduces risk, improves operational readiness, accelerates stabilization, strengthens reliability, and supports disciplined transition from completed facilities to dependable plant operation. Application guidance supports oil and gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine facilities. Additional guidance addresses start-up sequencing, SIMOPS coordination, spare-parts readiness, consumables, laboratory support, environmental compliance, performance monitoring, defect elimination, lessons learned, and close-out actions required to maintain safe and reliable operation after initial start-up.

Rp499.000
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Commissioning

COMMISSIONING AND PERFORMANCE TEST

COMMISSIONING AND PERFORMANCE TEST HANDBOOK VERSION 1.0 provides an integrated framework for planning, executing, verifying, and documenting commissioning and performance testing of industrial facilities from system completion through final acceptance. The handbook covers system boundaries and turnover, mechanical completion, HSE controls, pre-commissioning, utility establishment, electrical and control-system commissioning, rotating and static equipment, process start-up, performance testing, measurement uncertainty, mass and energy balances, emissions verification, reliability runs, punch management, and final handover. The technical methodology emphasizes controlled test boundaries, approved procedures, calibrated instruments, stable operating conditions, traceable data, defined acceptance criteria, and formal stakeholder approval. Calculation frameworks are provided for flow, pump head, equipment efficiency, heat duty, compressor performance, turbine-generator output, boiler and heater efficiency, water-treatment performance, uncertainty combination, correction factors, and acceptance margins. Worked examples are illustrative and are intended to support procedure development, technical review, troubleshooting, and independent verification rather than replace project-specific calculations or approved vendor criteria. Practical implementation is supported by procurement and material-control guidance, Inspection and Test Plan structures, inspection records, commissioning forms, test sheets, calibration records, punch registers, performance-test logs, maintenance-frequency recommendations, reliability checks, and turnover documentation. The handbook also provides industrial-sector application matrices and lifecycle guidance linking design, procurement, fabrication, construction, commissioning, start-up, testing, and operational acceptance. The framework is applicable to oil and gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine projects. It promotes close coordination among engineering, construction, commissioning, operations, HSE, quality, vendors, and project-control teams. The intended outcome is a disciplined, evidence-based, and repeatable commissioning and performance-testing process that improves safety, data quality, equipment reliability, operational readiness, and acceptance confidence. By linking field measurements, engineering calculations, contractual guarantees, and documented results, the handbook helps project teams identify deficiencies, verify plant capability, manage corrective actions, demonstrate compliance, and achieve a reliable transition from completed facilities to sustained commercial operation. Additional guidance addresses test organization, witness responsibilities, data validation, temporary instrumentation, retesting, reporting, lessons learned, and preservation of approved final performance records.

Rp499.000
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Commissioning

START-UP COMMISSIONING

START-UP COMMISSIONING HANDBOOK VERSION 1.0 provides an integrated framework for planning, controlling, executing, verifying, and documenting the start-up of industrial facilities from completion readiness through stable operation and handover. The handbook covers readiness reviews, safety management, SIMOPS, turnover coordination, utility establishment, electrical energization, DCS/PLC readiness, rotating and static equipment, fired equipment, process introduction, cleaning and purging, leak testing, catalyst and chemical loading, performance testing, trip and ESD verification, troubleshooting, operational handover, and early-life reliability. Each chapter addresses the complete lifecycle from design and procurement through fabrication, delivery, installation, construction, pre-commissioning, start-up, performance verification, and transfer to operations. The methodology emphasizes progressive readiness, controlled energy introduction, verified system boundaries, approved procedures, calibrated instruments, qualified personnel, clear communication, and traceable acceptance evidence. Particular attention is given to coordination between engineering, construction, commissioning, operations, HSE, quality, vendors, and project controls. Technical content includes representative calculations, worked examples, commissioning checklists, start-up sequences, technical flow diagrams, 3D engineering visualizations, field-style illustrations, and standardized records. Practical guidance addresses utility balancing, equipment warm-up, process stabilization, alarm and trip verification, temporary operating conditions, abnormal-event response, punch management, defect resolution, preservation release, and reliability monitoring during early operation. Application guidance spans oil and gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine projects. The handbook is intended to serve as a practical reference that can be adapted to project-specific procedures, owner standards, contractual requirements, vendor recommendations, and governing codes. The intended outcome is a safe, evidence-based, and repeatable start-up process that improves operational readiness, reduces risk, accelerates stabilization, strengthens documentation quality, and supports reliable handover. By linking management decisions with field evidence, operating data, and formal acceptance criteria, the handbook helps project teams achieve a disciplined transition from completed facilities to dependable commercial operation. It also provides guidance for start-up organization, shift handover, communication protocols, consumables, spare-parts readiness, vendor attendance, operating envelopes, performance trending, lessons learned, and close-out actions to ensure unresolved issues are controlled after initial operation successfully.

Rp499.000
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Commissioning

FIRE PROTECTION COMMISSIONING

Fire Protection System Commissioning Handbook Version 1.0 provides an end-to-end framework for planning, executing, verifying, and handing over fire protection and emergency response systems in industrial and EPC projects. It covers fire water storage and distribution, fire pumps, hydrants and monitors, automatic sprinklers, deluge and water spray systems, foam systems, clean agent and CO₂ systems, portable extinguishers, fire and gas interfaces, alarm and notification systems, electrical and emergency power supplies, DCS/PLC/ESD interfaces, and integrated emergency response testing. The technical approach combines systemization, approved design intent, inspection and test planning, controlled commissioning boundaries, hydraulic and functional test principles, material and procurement control, field release, deficiency management, retesting, restoration, and formal acceptance. Sample calculations illustrate practical checks for fire water demand, pump performance, pressure, flow, discharge duration, storage capacity, and other commissioning decisions while requiring final acceptance against project-specific design data, vendor documentation, applicable codes, and owner standards. Practical implementation is supported by Inspection and Test Plans, checklists, commissioning forms, calibration records, field release documents, test certificates, punch lists, deficiency and retest registers, maintenance tasks, preventive inspection frequencies, reliability records, and turnover dossiers. Lifecycle controls connect design, procurement, construction, pre-commissioning, commissioning, start-up readiness, operations handover, and maintenance. The central principle is evidence-based readiness. Each protective function must be traceable to approved drawings, calculations, cause-and-effect requirements, equipment data, and acceptance criteria. Testing must be performed under controlled conditions using calibrated instruments, documented results, verified restoration, and authorized stakeholder approval before the system is declared operational. The intended outcome is a safe, auditable, and repeatable commissioning process that improves system integrity, emergency preparedness, documentation quality, reliability, and readiness for operation. The handbook supports coordination among engineering, construction, commissioning, HSE, quality, vendors, operations, maintenance, and emergency-response teams across oil and gas, petrochemical, chemical, power, water, mining, manufacturing, offshore, infrastructure, and marine facilities. It also strengthens interface verification, integrated scenario testing, operator competence, spare-parts readiness, impairment control, post-test restoration, and long-term assurance of critical fire protection functions throughout the facility lifecycle.

Rp499.000
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Commissioning

UTILITY OFFSITE COMMISSIONING

Utility and Offsite Facilities Commissioning Handbook Version 1.0 provides a comprehensive framework for planning, executing, verifying, and handing over utility and offsite systems in industrial and EPC projects. It covers commissioning philosophy, design-basis verification, systemization, turnover, water systems, steam and condensate, instrument and plant air, nitrogen, fuel gas, flare systems, cooling water, firewater, tank farms, drains and wastewater, electrical interfaces, DCS/PLC/ESD integration, rotating equipment, piping cleaning, chemical systems, PSSR, start-up, performance testing, reliability runs, operations handover, and commissioning close-out. Each chapter combines technical theory with equipment and material lifecycle considerations, pre-commissioning and commissioning activities, calculation notes, worked examples, material and procurement controls, Inspection and Test Plan concepts, inspection records, maintenance frequencies, troubleshooting guidance, industrial application matrices, and chapter-specific 3D engineering or field-style visualizations. The handbook is structured as a practical master reference that can be adapted to project procedures, contractual requirements, owner standards, and selected governing codes. The methodology emphasizes progressive assurance and evidence-based release. System boundaries, readiness criteria, approved procedures, calibrated instruments, test equipment, temporary facilities, utilities, punch status, safety controls, and acceptance records are verified before energy or process media are introduced. Operator participation, vendor support, preservation, spare-parts readiness, and reliability continuity are integrated into commissioning planning and execution. Key principles applied throughout include safety before schedule; system completeness before energization; clean and dry systems before introducing operating media; calibrated instrumentation before functional testing; controlled energy introduction; objective acceptance criteria; traceable records; structured punch management; preservation; and disciplined dossier handover. The intended outcome is a consistent and auditable commissioning process that improves system integrity, start-up readiness, operational reliability, documentation quality, and final handover. By linking engineering requirements, field evidence, testing, safety, and operating acceptance, the handbook helps teams reduce rework, control commissioning risk, resolve deficiencies early, and achieve a dependable transition from installed utility and offsite systems to stable plant operation. It also supports coordinated planning among engineering, construction, commissioning, operations, HSE, quality, vendors, and maintenance teams throughout system turnover and stabilization activities.

Rp499.000
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Commissioning

DCS AND PLC COMMISSIONING

DCS and PLC Commissioning Handbook Version 1.0 presents a structured methodology for verifying that control-system hardware, software, field interfaces, communication networks, logic, alarms, interlocks, operator functions, and supporting infrastructure have been installed, configured, tested, and documented in accordance with approved engineering requirements. The commissioning process begins with document, database, and configuration readiness; continues through physical inspection, power-up, I/O verification, loop checking, and functional testing; and progresses to integrated site testing, start-up support, performance verification, and final handover. The handbook emphasizes full traceability between design intent and field evidence. Every commissioned function is linked to approved documents such as I/O lists, loop diagrams, control narratives, cause-and-effect matrices, cable schedules, network architecture drawings, logic diagrams, instrument data, and vendor documentation. Controlled configuration baselines, signed test records, calibrated test equipment, punch management, and formal acceptance points provide auditable evidence of readiness. Technical guidance addresses controllers, remote I/O, marshalling systems, operator and engineering stations, servers, communication gateways, industrial networks, redundancy, time synchronization, alarm management, historian interfaces, backup and restore, cybersecurity, UPS support, spare-parts planning, reliability, and lifecycle management. Practical examples include 4–20 mA scaling, network-utilization calculations, UPS autonomy concepts, logic validation, alarm and interlock checks, redundancy testing, inspection and test plans, punch-list classification, commissioning records, maintenance frequencies, and industrial-sector application matrices. The intended outcome is a complete and auditable commissioning dossier supporting safe start-up, dependable operation, fault diagnosis, and sustainable maintenance. By connecting engineering requirements, configuration data, field tests, network performance, cybersecurity controls, operator functions, and acceptance evidence, the handbook helps EPC teams reduce rework, identify defects earlier, control commissioning risk, and achieve a disciplined transition from installed DCS and PLC systems to reliable plant operation. It is intended for control engineers, commissioning specialists, technicians, vendors, inspectors, operations personnel, and project teams responsible for delivering safe and maintainable automation systems. Additional guidance covers simulation, factory and site acceptance interfaces, change management, software version control, user access, training, final backups, turnover documentation, and governance requirements for reliable long-term operational support.

Rp499.000
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Commissioning

INSTRUMENT AND CONTROL SYSTEM COMMISSIONING

Instrument and Control Systems Commissioning Handbook Version 1.0 presents a structured technical methodology for commissioning Instrument and Control Systems (I&CS) in EPC and industrial projects. It covers design readiness, document control, material verification, installation quality, calibration, continuity and insulation testing, loop checks, DCS, PLC and SIS verification, fire and gas integration, package interfaces, telecommunications, serial and network communications, cybersecurity readiness, final element testing, cause-and-effect validation, functional acceptance, start-up support, and final handover. The central philosophy is systemization and progressive assurance. Commissioning is treated not as a single final activity, but as a controlled sequence of verified transitions from construction completion through pre-commissioning, functional testing, integrated testing, operational readiness, and acceptance. Each transition is supported by approved procedures, calibrated test equipment, controlled isolations, punch management, configuration baselines, signed inspection records, and traceable evidence. Technical content includes practical checks for transmitters, control valves, analyzers, switches, field instruments, junction boxes, marshalling cabinets, control panels, safety systems, package controls, and communication interfaces. Worked examples cover transmitter scaling, loop uncertainty, valve stroke timing, thermocouple verification, analog-signal tolerance, discrete logic validation, voting logic, alarm setpoint verification, and control-loop response criteria. These examples demonstrate calculation and verification workflows while requiring final acceptance against project-specific specifications, approved vendor data, and governing standards. Reliability is strengthened through early defect elimination, proof-test planning, spare-parts strategy, maintenance task definition, configuration control, cybersecurity preparation, and preservation of complete as-built records. The handbook also emphasizes multidisciplinary coordination among instrumentation, electrical, process, mechanical, telecom, control, HSE, quality, construction, commissioning, vendors, and operations teams. The intended result is a practical lifecycle reference that improves testing consistency, system integrity, safety, documentation quality, traceability, and readiness for dependable operation. It supports disciplined commissioning, faster fault resolution, reduced rework, reliable functional acceptance, and a controlled transition from installed instrumentation and control systems to stable plant operation. Practical records, test sheets, loop folders, cause-and-effect reports, system certificates, outstanding-item registers, training records, and turnover dossiers provide auditable evidence for final project acceptance and asset management.

Rp499.000
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Commissioning

ELECTRICAL SYSTEM COMMISSIONING AND ENERGIZATION

Electrical System Commissioning and Energization Handbook Version 1.0 presents an integrated methodology for commissioning, testing, energizing, and handing over electrical systems on industrial and infrastructure projects. The handbook covers commissioning systemization, safety governance, document turnover, pre-commissioning inspection, switchgear, transformers, motors, generators, UPS and DC systems, cables, grounding, protection, bus systems, power quality, automation, variable-frequency drives, heat tracing, hazardous areas, switching programs, integrated system testing, troubleshooting, maintenance, reliability, and sector-specific applications. Each technical chapter follows a consistent lifecycle beginning with the engineering basis and continuing through equipment and material specification, procurement, preservation, fabrication and installation readiness, test procedures, calculation notes, inspection records, commissioning documentation, maintenance requirements, reliability considerations, and industrial application. Unique 3D engineering schematics, rendered field views, and technical flow diagrams support the explanations and improve understanding of equipment interfaces, commissioning sequences, and release logic. The handbook emphasizes evidence-based energization and controlled release. Mechanical completion, electrical test results, protection settings, interlocks, control logic, energized measurements, punch status, and final records are linked through clearly defined system boundaries, approval gates, and formal release points. This structure supports traceability from installation through safe energization and operational acceptance. Worked examples demonstrate practical calculations including full-load current, transformer fault contribution, polarization index, voltage drop, battery capacity, harmonic distortion, load shedding, equipment loading, and other commissioning decisions. These examples are intended as engineering references and must be verified against project-specific data, approved vendor information, operating requirements, and governing standards. The resulting framework supports safer energization, improved test consistency, better coordination between engineering, construction, commissioning, operations, vendors, HSE, and quality teams, and more reliable transition to service. It provides a practical lifecycle reference for engineers, supervisors, technicians, inspectors, planners, commissioning personnel, and asset owners responsible for delivering electrical systems that are safe, compliant, documented, maintainable, and ready for dependable operation. Additional guidance addresses readiness reviews, temporary power arrangements, permit coordination, energization sequencing, abnormal-condition response, spare-parts availability, training, turnover dossiers, and post-energization monitoring to strengthen operational safety, reliability, assurance, and final acceptance.

Rp499.000
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Commissioning

ROTATING EQUIPMENT COMMISSIONING

ROTATING EQUIPMENT COMMISSIONING HANDBOOK VERSION 1.0 provides a structured and field-oriented methodology for commissioning rotating equipment from design review and vendor manufacture through delivery, preservation, installation, pre-commissioning, first rotation, controlled start-up, performance acceptance, reliability verification, and final transfer to operations. The handbook treats machinery as an integrated train and emphasizes coordination between mechanical, piping, electrical, instrumentation, control, HSE, quality, construction, vendor, commissioning, and operations disciplines. Technical subjects include equipment criticality, preservation, foundations, baseplates, grouting, soft foot, shaft alignment, piping strain, nozzle loads, lubrication systems, seal systems, bearings, couplings, motors, variable-speed drives, centrifugal and positive displacement pumps, centrifugal and reciprocating compressors, gas and steam turbines, fans, blowers, gearboxes, mixers, package units, protection systems, vibration diagnostics, cleaning, flushing, solo runs, first rotation, controlled start-up, performance testing, root-cause analysis, reliability maintenance, vendor inspection, heavy lifting, ITPs, records, and handover. The calculation notes introduce practical engineering relationships for pump head, NPSH-related checks, thermal growth, fan power, turbine power, compressor performance concepts, Reynolds number, bearing life, vibration RMS, efficiency, equipment availability, alignment correction, lubrication requirements, and other commissioning decisions. Worked examples demonstrate calculation workflows while intentionally deferring final acceptance criteria to approved vendor documentation, project specifications, operating requirements, and governing standards. Practical implementation is supported by equipment checklists, preservation records, alignment forms, lubrication and flushing records, solo-run sheets, start-up procedures, vibration reports, performance-test records, punch lists, inspection reports, protection-system verification, vendor-support records, and handover dossiers. The intended result is a professional lifecycle reference that improves equipment integrity, commissioning consistency, safety, diagnostic quality, documentation traceability, and operational readiness. By linking engineering requirements, field evidence, vendor criteria, inspection status, and commissioning results, the handbook helps project teams identify defects early, control machinery risk, reduce rework, improve reliability, and achieve a disciplined transition from installed equipment to stable and dependable operation.

Rp499.000
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Commissioning

PIPING SYSTEM COMMISSIONING

PIPING SYSTEM COMMISSIONING HANDBOOK VERSION 1.0 presents a comprehensive, structured, and field-oriented framework for planning, executing, verifying, documenting, and handing over industrial piping systems from mechanical completion through safe operational readiness. The handbook covers systemization, turnover control, P&ID and test-pack management, work packs, line checks, punch-list control, flushing, air and steam blowing, chemical cleaning, hydrostatic and pneumatic testing, sensitive leak testing, drying, preservation, reinstatement, valve and inline-component verification, supports, small-bore piping, instrument piping, temporary utilities, PSSR, start-up readiness, handover, reliability, and sector-specific applications. The technical approach emphasizes controlled system boundaries, traceable evidence, calibrated instruments, approved procedures, safe temporary arrangements, verified isolation, and final reinstatement to the approved operating configuration. Calculation notes and worked examples explain practical relationships for test pressure, flushing velocity, drying criteria, air requirements, leak testing, temporary utility demand, preservation intervals, and commissioning readiness. These examples are intended as technical references and must be verified against project-specific codes, specifications, operating conditions, and client requirements. Practical implementation is supported by material and equipment specifications, Inspection and Test Plan structures, field-release controls, commissioning forms, system checklists, test records, punch registers, reinstatement records, maintenance-frequency guidance, 3D engineering schematics, and field-style visualizations. The handbook also addresses coordination among piping, mechanical, process, instrumentation, electrical, HSE, quality, construction, vendors, commissioning, and operations teams. The framework is adaptable to Oil & Gas, Petrochemical, Chemical, Power Plant, Water & Wastewater, Mining, Manufacturing, Offshore, Infrastructure, and Marine facilities. It supports consistent preparation, execution, inspection, acceptance, and documentation while recognizing that governing project standards always take precedence. The intended result is a professional lifecycle reference that improves commissioning consistency, piping integrity, safety, documentation quality, test traceability, reliability, and readiness for operation. By linking field activities with approved engineering data and acceptance evidence, the handbook helps teams reduce rework, control risk, accelerate turnover, and achieve dependable handover to operations. It also provides a disciplined basis for planning system priorities, managing commissioning interfaces, tracking outstanding work, coordinating resources, and demonstrating completion clearly to project stakeholders.

Rp499.000
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Commissioning

COMMISSIONING PLANNING AND SCHEDULING

COMMISSIONING PLANNING AND SCHEDULING HANDBOOK VERSION 1.0 presents a comprehensive and integrated framework for planning, controlling, and scheduling commissioning activities across the complete transition from construction completion to operational acceptance. It combines systemization, completion management, critical-path scheduling, resource planning, progress measurement, field readiness, pre-commissioning, dynamic commissioning, HSE controls, QA/QC, material logistics, digital reporting, risk analysis, reliability verification, and structured handover. The methodology is based on measurable readiness gates established for each system and subsystem. Planning considers prerequisites, physical boundaries, permits, utilities, approved procedures, records, test equipment, temporary facilities, vendor support, spares, trained personnel, and acceptance evidence. Schedule activities are coded to the same system hierarchy used by the completion database, enabling progress, punch status, test records, constraints, milestones, and turnover certificates to be reconciled consistently. Technical sections include fundamental CPM equations, float analysis, resource-loading concepts, productivity calculations, weighted-progress methods, PERT-based uncertainty, stock-cover calculations, readiness indices, quality metrics, equipment availability measures, schedule-performance indicators, and worked examples. These tools help planners identify critical constraints, evaluate resource demand, forecast completion dates, and maintain transparent commissioning status. Practical appendices provide reusable templates for commissioning planning basis, schedule coding structures, system and subsystem boundaries, Inspection and Test Plans, field-release forms, punch registers, test records, turnover dossiers, material lists, spare-parts controls, maintenance frequencies, sector applications, calculation sheets, readiness dashboards, and KPI reporting. The framework is applicable, with project-specific adaptation, to oil and gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine projects. It emphasizes coordination among construction, commissioning, engineering, vendors, operations, HSE, quality, planning, and project-control teams. The governing objective is consistent: achieve a safe, evidence-based, measurable, and schedule-controlled transfer from installed plant to reliable operation. By linking system readiness, field evidence, schedule logic, resources, quality records, and acceptance criteria, the handbook supports earlier constraint identification, disciplined turnover, efficient start-up, improved predictability, and reliable final handover. It also supports integrated look-ahead planning, milestone forecasting, recovery scheduling, interface coordination, lessons learned, and continuous improvement throughout commissioning execution.

Rp499.000
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Commissioning

COMMISSIONING MANAGEMENT

COMMISSIONING MANAGEMENT HANDBOOK VERSION 1.0 provides a comprehensive and integrated framework for managing commissioning activities across Oil & Gas, Petrochemical, Chemical, Power Plant, Water & Wastewater, Mining, Manufacturing, Offshore, Infrastructure, and Marine projects. The handbook is structured to support the complete transition from construction completion to safe, reliable, and documented operation of industrial facilities. The framework covers commissioning philosophy, systemization, organization, governance, execution strategy, planning, scheduling, resource management, budgeting, mechanical completion, punch-list control, field walkdowns, pre-commissioning, discipline commissioning, energization, utility introduction, start-up, controlled shutdown, performance testing, reliability runs, operational readiness, preservation, maintenance, digital completion systems, training, dossier preparation, and final handover. Particular attention is given to interface management between engineering, construction, vendors, commissioning teams, operations, and owners. Technical content includes calculation notes, worked examples, equipment and material requirements, Inspection and Test Plan concepts, field-release criteria, commissioning check sheets, test records, maintenance-frequency guidance, inspection documentation, sector application matrices, and technical flow diagrams. Practical methods are included for measuring system readiness, punch closure, turnover status, test completion, resource demand, schedule progress, equipment availability, and commissioning performance. The handbook also addresses commissioning risks, temporary systems, energization controls, permit interfaces, preservation requirements, spare-parts readiness, vendor support, safety reviews, operating procedures, training verification, and documentation traceability. These controls help ensure that systems are released only when technical, safety, quality, and operational requirements have been satisfied. The objective is to connect management decisions with field evidence so that commissioning status remains measurable, auditable, traceable, and safe. The resulting approach supports early identification of constraints, disciplined turnover, efficient start-up, reliable performance testing, smoother transition to operations, and complete project acceptance. The handbook is intended for commissioning managers, discipline engineers, planners, supervisors, inspectors, vendors, operations teams, project managers, and technical personnel requiring a single lifecycle-oriented commissioning reference. It further provides reusable templates for system boundaries, turnover certificates, commissioning schedules, test packs, outstanding-work registers, performance records, acceptance certificates, and close-out tracking, enabling consistent implementation across projects while allowing adaptation to contractual and site-specific requirements.

Rp499.000
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Construction

EPC NEGOTIATING MANAGEMENT SKILL

This handbook presents a comprehensive framework for negotiation principles and management practices across engineering, procurement, and construction projects. It addresses stakeholder alignment, contract strategy, commercial positioning, risk allocation, claims management, procurement negotiations, technical and commercial evaluation, construction change management, commissioning, handover, dispute resolution, communication, leadership, cross-cultural negotiation, ethics, and relationship management throughout the EPC lifecycle. The technical approach combines structured preparation, fact-based analysis, commercial awareness, and disciplined communication. Practical methods include stakeholder mapping, issue prioritization, negotiation planning, BATNA development, reservation-point definition, weighted evaluation models, risk-adjusted pricing, total cost of ownership, scenario analysis, concession planning, and decision matrices. These methods help project teams understand priorities, define acceptable outcomes, compare alternatives, quantify trade-offs, and maintain a consistent negotiation position. Practical implementation is supported by calculation notes, worked examples, procurement and material controls, bid evaluation structures, negotiation checklists, contract-review tools, variation and claims registers, Inspection and Test Plan concepts, inspection records, commissioning forms, handover documentation, maintenance-frequency guidance, and industrial application matrices. The handbook also emphasizes traceability of assumptions, documented approvals, clear authority levels, and alignment between technical, commercial, contractual, schedule, quality, and operational requirements. The framework is applicable to owners, EPC contractors, subcontractors, suppliers, consultants, construction teams, commissioning personnel, contract administrators, project managers, procurement specialists, engineers, and commercial teams. It is designed for use across oil and gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, infrastructure, marine, and other complex industrial projects. Additional guidance covers meeting preparation, negotiation agendas, authority matrices, escalation routes, minutes, action tracking, lessons learned, relationship management, and post-negotiation monitoring to ensure commitments are understood, recorded, implemented, and verified. The intended outcome is a repeatable and professional negotiation system that improves clarity, supports fair and sustainable agreements, protects project value, reduces avoidable disputes, strengthens collaboration, and enables better decisions. By linking negotiation strategy with evidence, risk, cost, schedule, technical requirements, and long-term relationships, the handbook helps project teams achieve practical agreements that remain implementable throughout execution, commissioning, final acceptance, and post-handover obligations.

Rp499.000
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Construction

EPC BRIDGE CIVIL

EPC Bridge Civil Handbook Version 1.0 presents a comprehensive and integrated technical and management framework for the engineering, procurement, construction, commissioning, and lifecycle support of bridge civil works. It covers bridge type selection, topographic and geotechnical surveys, hydrology, scour assessment, design loads, concrete, reinforcement, prestressing, structural steelwork, foundations, substructures, superstructures, cable-supported systems, temporary works, procurement, fabrication, heavy lifting, roadway systems, QA/QC, HSE, commissioning, load testing, maintenance, rehabilitation, BIM, structural health monitoring, project controls, sector applications, worked calculations, and field documentation. The technical content emphasizes traceable design assumptions, multidisciplinary coordination, clear interface definition, constructability, material control, inspection planning, field-release logic, documented acceptance, and whole-life maintainability. Calculation notes introduce fundamental structural, geotechnical, hydraulic, and construction relationships through worked examples intended for training and practical understanding. These examples are presented as educational references and must be verified using project-specific geometry, loads, materials, environmental conditions, analytical models, contractual requirements, and governing standards before application to final design or construction decisions. Practical implementation is supported by material lists, procurement registers, vendor controls, Inspection and Test Plan logic, fabrication and installation inspection records, field-release forms, commissioning documentation, load-test records, maintenance frequencies, reliability considerations, punch-list controls, handover records, and industrial application matrices. Guidance also addresses construction sequencing, access, temporary supports, lifting studies, inspection hold points, nonconformance control, and coordination between design, procurement, fabrication, construction, commissioning, and asset-management teams. Additional guidance connects engineering deliverables with procurement packages, fabrication readiness, site logistics, erection methodology, traffic management, environmental requirements, digital information, inspection status, and turnover. This integration helps project teams identify technical risks early and maintain consistent control from concept development through operation. The handbook is structured as a lifecycle-oriented reference for civil and structural engineers, bridge designers, construction managers, inspectors, planners, procurement specialists, fabrication teams, commissioning personnel, asset managers, trainers, and technical students. Its objective is to support safer execution, stronger quality control, improved constructability, better schedule and cost predictability, reliable acceptance evidence, and more maintainable bridge assets across infrastructure and industrial EPC projects.

Rp499.000
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Construction

DIGITAL TRANSFORMATION FOR EPC PROJECT

Digital Transformation for EPC Project Handbook Version 1.0 provides a comprehensive and integrated professional framework for transforming EPC delivery from document-centric, fragmented, and manually coordinated workflows into connected, traceable, collaborative, and data-driven project execution. The handbook treats digital transformation as an engineering and management system rather than simply a technology purchase, emphasizing governance, lifecycle information requirements, architecture, implementation controls, assurance gates, measurable benefits, and auditable project records. The technical scope covers common data environments, BIM, 3D, 4D and 5D modeling, digital twins, engineering data integration, artificial intelligence, advanced analytics, industrial IoT, cloud and edge computing, cybersecurity, project controls, digital procurement, vendor data management, smart construction, drones, LiDAR, robotics, digital QA/QC, digital HSE, system completion, asset information management, predictive maintenance, sustainability data, and organizational change management. Calculation notes and worked examples provide a quantitative basis for evaluating digital benefits, data quality, progress performance, earned value, survey accuracy, system availability, reliability, productivity, and carbon metrics. Practical guidance connects digital information with engineering, procurement, construction, commissioning, operations, and maintenance decisions while maintaining traceability of assumptions, source data, approvals, and revisions. The handbook also includes material and procurement controls, Inspection and Test Plan concepts, digital inspection records, field-release logic, commissioning and turnover documentation, maintenance frequencies, reliability procedures, vendor information controls, data handover requirements, and a cross-industry application matrix. Templates and example records are designed for adaptation to company procedures, project contracts, owner information standards, and selected digital platforms. The intended outcome is a reusable operating reference for EPC organizations seeking greater transparency, faster decision-making, improved coordination, stronger quality assurance, reduced rework, better schedule and cost control, safer execution, and more reliable asset information. The framework supports disciplined digital implementation across oil and gas, petrochemical, chemical, power, water, mining, manufacturing, offshore, infrastructure, marine, and other complex EPC projects while retaining clear governance and verifiable evidence throughout the project lifecycle. It also supports structured digital maturity assessment, implementation roadmaps, stakeholder responsibilities, interoperability planning, training, adoption monitoring, and continuous improvement across organizations.

Rp499.000
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Construction

CONSTRUCTABILITY AND CONSTRUCTION

Constructability and Construction Handbook Version 1.0 provides a comprehensive and integrated framework for converting engineering design intent into safe, practical, buildable, inspectable, maintainable, and commissionable facilities. It addresses the complete design-to-construction-to-handover lifecycle, including constructability governance, design maturity, site logistics, temporary facilities, modularization, civil and structural works, equipment installation, piping, electrical, instrumentation, telecommunications, fire and gas systems, heavy lifting, scaffolding, welding, protective systems, mechanical completion, HSE, quality, materials management, planning, and digital construction. The handbook emphasizes early constructability reviews, multidisciplinary coordination, field accessibility, sequencing, work-front readiness, lifting and transportation constraints, maintainability, inspection access, commissioning requirements, and integration between engineering, procurement, construction, and operations. Technical calculation notes and worked examples demonstrate how engineering assumptions can be translated into practical field decisions while maintaining traceability, verification, and compliance with project requirements. Practical guidance includes material and procurement controls, installation checks, inspection and commissioning records, Inspection and Test Plan structures, preservation requirements, maintenance frequencies, field-release documentation, punch management, turnover records, construction readiness reviews, and quality-control checkpoints. Technical tables, checklists, reusable templates, reference data, and sector application matrices are included to support consistent implementation across different project types. The handbook contains 28 detailed chapters covering the full lifecycle from design development through construction, completion, commissioning interface, and final handover. Each chapter is supported by unique field visualizations and technical 3D-style construction flow diagrams that illustrate key activities, interfaces, sequences, risks, and control points. The intended outcome is improved project predictability through fewer design-field conflicts, reduced rework, safer work fronts, more reliable material flow, better productivity, clearer inspection status, improved quality, and smoother turnover to commissioning and operations. The framework is designed for adaptation to company procedures, project specifications, contractual requirements, site conditions, and governing codes across oil and gas, petrochemical, chemical, power, water, mining, manufacturing, offshore, infrastructure, and marine projects. It serves as a practical reference for engineers, construction managers, supervisors, inspectors, planners, procurement teams, HSE personnel, commissioning specialists, contractors, subcontractors, and owner representatives managing complex EPC execution activities successfully.

Rp499.000
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Construction

EPC INTERFACE MULTIDISCIPLINE MANAGEMENT

EPC Interface Multidiscipline Management provides a comprehensive and integrated framework for controlling technical, organizational, contractual, physical, and information interfaces throughout the complete EPC project lifecycle. The handbook covers concept development, FEED handover, detailed engineering, procurement, vendor coordination, fabrication, construction, pre-commissioning, commissioning, start-up, handover, and transition to operations. The framework addresses organizational interfaces between project teams, discipline interfaces across engineering functions, package and vendor boundaries, contractor and subcontractor coordination, schedule integration, risk management, interface documentation, technical-data exchange, inspection coordination, field release, and acceptance evidence. Particular attention is given to managing dependencies between process, mechanical, piping, civil, structural, electrical, instrumentation, telecom, safety, procurement, construction, commissioning, and operations teams. The technical approach combines interface identification, ownership assignment, boundary definition, dependency mapping, action tracking, document control, schedule linkage, risk prioritization, and formal closure. Practical methods include interface registers, responsibility matrices, interface control documents, battery-limit definitions, tie-in registers, data-exchange schedules, vendor-interface matrices, interface risk ranking, readiness reviews, and escalation procedures. These tools help ensure that unresolved boundaries and missing information are identified before they generate rework, delay, cost growth, or commissioning problems. The handbook also provides practical templates for interface registers, meeting records, action logs, technical-query tracking, data-request schedules, vendor-document coordination, inspection interfaces, field-release records, construction handover, commissioning readiness, and interface close-out. Worked examples illustrate how interface status can be measured and reported using completion, aging, criticality, and schedule-impact indicators. Sector-specific guidance supports oil and gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, infrastructure, marine, and other complex EPC projects. The resulting system establishes a controlled multidisciplinary coordination process in which each interface has a defined owner, required information, due date, acceptance criteria, supporting evidence, and closure status. This helps project teams maintain technical consistency, schedule alignment, contractual clarity, construction readiness, safe commissioning, and reliable final handover.

Rp499.000
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Construction

EPC PROJECT CLOSE-OUT HANDOVER ACCEPTANCE

Project Close-out, Handover and Acceptance Handbook Version 1.0 provides a comprehensive and integrated framework for closing EPC projects from system completion through final handover and contractual acceptance. It establishes the governance, responsibilities, systemization philosophy, completion logic, turnover sequence, document controls, quality verification, acceptance gates, commercial settlement, warranty transition, and post-handover support required to achieve an orderly and fully traceable project close-out. The handbook addresses the complete lifecycle of close-out activities, including mechanical completion, ready-for-commissioning status, commissioning completion, performance testing, provisional handover, final acceptance, punch-list management, outstanding work, documentation turnover, asset-data transfer, spare-parts control, warranty administration, claims resolution, schedule close-out, commercial reconciliation, and lessons learned. It emphasizes the importance of coordinating engineering, procurement, construction, commissioning, quality, contracts, document control, operations, and owner representatives. Practical performance measures include the Close-out Completion Index, Punch Closure Rate, Document Acceptance Index, Gate Readiness Score, schedule close-out indicators, commercial close-out metrics, equipment reliability indicators, and acceptance-readiness measures. Worked examples demonstrate how weighted readiness calculations can support management decisions while ensuring that critical safety, quality, operational, contractual, or documentation blockers are not hidden by high overall completion percentages. Templates and example forms cover mechanical completion certificates, ready-for-commissioning records, commissioning completion, performance-test results, handover certificates, acceptance documentation, asset registers, spare-parts lists, warranty registers, claims tracking, schedule close-out, inspection records, ITP completion, field-release documentation, punch tracking, and KPI monitoring. Sector-specific guidance supports oil and gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine EPC projects. The handbook reinforces a key principle: project acceptance is a multidisciplinary decision supported by complete, retrievable, and verifiable evidence. It is not simply a signature, milestone date, or percentage-complete value. The resulting framework supports safe transition to operations, clear contractual closure, reliable asset handover, controlled residual obligations, and a defensible record of project completion.

Rp499.000
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Construction

EPC DELAY ANALYSIS EOT

This handbook presents a comprehensive and integrated framework for EPC delay analysis and Extension of Time (EOT) claims throughout the complete project lifecycle. It covers delay governance, contractual entitlement, notice requirements, CPM scheduling, baseline validation, event identification, contemporaneous records, as-planned and as-built techniques, Time Impact Analysis (TIA), windows analysis, contemporaneous period analysis, as-built critical path assessment, collapsed as-built methods, concurrency, pacing, float ownership, mitigation, acceleration, disruption, productivity loss, EOT claim preparation, and dispute-avoidance practices. The technical approach is structured around four connected tests. First, the contractual event, entitlement basis, notice obligations, and procedural requirements are identified. Second, factual causation is established using reliable contemporaneous evidence, including correspondence, progress reports, schedules, procurement records, inspection data, site records, and commissioning documentation. Third, the effect of the event on the critical or driving path is demonstrated using a schedule-analysis method appropriate to the available data, project stage, and contractual context. Fourth, the analytical result is reconciled against mitigation measures, concurrent delay, pacing, actual progress, acceleration actions, and the relief available under the contract. Worked examples, calculation checks, schedule-quality reviews, and reproducibility requirements are included to strengthen analytical consistency and professional credibility. Practical templates cover notices, event registers, baseline and update QA, TIA calculations, procurement and vendor-delay control, inspection and field-release tracking, commissioning readiness, prolongation and disruption calculations, sector risk matrices, and schedule-maintenance frequencies. The handbook is designed for application across oil and gas, petrochemical, chemical, power, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine EPC projects. The resulting system is lifecycle-oriented: delays are identified early, evidence is preserved as work progresses, analytical methods are selected according to data quality and timing, and EOT submissions remain traceable from contract clause to event, schedule impact, mitigation, entitlement, and supporting records for negotiation, determination, or dispute resolution. It also supports coordinated delay management among owners, EPC contractors, subcontractors, suppliers, planners, engineers, construction teams, commissioning personnel, contract administrators, and claims specialists, helping teams maintain records, timely notices, and defensible schedule analyses.

Rp499.000
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Construction

EPC PROCUREMENT EXPEDITING VENDOR MANAGEMENT

This handbook presents a comprehensive EPC procurement, expediting, and vendor-management framework designed to support the full material and equipment supply cycle from early project planning through final handover. It covers procurement governance, planning, requisition preparation, technical specifications, supplier prequalification, RFQ and ITB development, technical and commercial bid evaluation, contract award, vendor-data control, engineering interfaces, progress monitoring, source inspection, FAT, material traceability, preservation, logistics, warehousing, construction support, commissioning spares, warranty administration, and supplier-performance evaluation. The technical approach integrates schedule, cost, commercial, engineering, quality, and supply-chain controls into one coordinated system. Core methods include weighted vendor scoring, technical-compliance measurement, bid normalization, total-cost evaluation, procurement progress measurement, schedule-performance indices, inspection and NCR metrics, material-traceability completeness, preservation-compliance monitoring, logistics chargeable-weight calculations, inventory reorder-point logic, and vendor-performance scoring. Worked examples demonstrate how these methods can be applied in practical EPC situations while maintaining the need for project-specific engineering review, verification, and approval. Practical deliverables include procurement registers, technical and commercial evaluation formats, VDRL controls, expediting reports, inspection and test plans, inspection records, FAT documentation, material-certification registers, shipping and logistics documents, warehouse receiving forms, material-issue controls, commissioning-support records, warranty files, supplier scorecards, and close-out checklists. The handbook also provides material-specification guidance, preservation and reliability procedures, industrial-sector application matrices, and example forms that can be customized to suit company and project requirements. Emphasis is placed on clear responsibility, timely communication, risk-based follow-up, and disciplined coordination among engineering, procurement, quality, logistics, construction, commissioning, suppliers, and subcontractors. By linking procurement status with project priorities and documented acceptance criteria, the framework helps teams identify potential delays, quality issues, documentation gaps, and supply risks early enough for corrective action before they affect critical project milestones or performance. The resulting procurement system supports a central EPC objective: delivering the correct material and equipment, at the required quality, to the required location, at the required time, and at an approved total cost, with complete documentation and traceable evidence to support construction, commissioning, operation, maintenance, and final project handover.

Rp499.000
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Construction

PROJECT RISK MANAGEMENT

The Project Risk Management Handbook Version 1.0 has been structured as a field-oriented reference for Engineering, Procurement, and Construction (EPC) and industrial projects. It provides a comprehensive framework that integrates governance, qualitative and quantitative assessment, cost and schedule risk, technical risk, procurement, logistics, construction, HSE, quality, interface management, commissioning, contractual exposure, digital risk, climate resilience, business continuity, reporting, and closeout. The handbook emphasizes practical application, ensuring that risk management is not only theoretical but directly supports project execution and decision-making. Each chapter follows a consistent working pattern: explain the theory, outline the process, provide calculations or scoring logic, define controls, identify evidence and inspection records, and translate the method into sector-specific practice. Worked examples are intentionally transparent, allowing users to replace assumptions with their own project data rather than replicate results without understanding the basis. This approach strengthens comprehension and ensures adaptability across diverse project environments. The handbook also includes reusable forms, checklists, Inspection and Test Plan (ITP) concepts, field release records, commissioning readiness forms, procurement controls, reliability frequencies, and an industrial sector application matrix. These tools are designed to support disciplined conversations between project management, engineering, contractors, vendors, construction teams, and operations, fostering alignment and accountability. Risk management is presented as most valuable when it improves real decisions. The expected behavior is therefore straightforward: identify uncertainty early, quantify it when practical, act before the trigger is reached, verify the control, escalate when tolerance is exceeded, and capture lessons so that future projects begin from a stronger position. By combining structured methodology, transparent examples, and reusable tools, the Project Risk Management Handbook provides EPC teams with a professional, auditable, and field-ready reference. Its objective is to embed risk management into daily project practice, reduce exposure, enhance resilience, and ensure that industrial projects are delivered safely, reliably, and with sustainable performance.

Rp499.000
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Construction

TENDERING BIDDING PROPOSAL MANAGEMENT

The Tendering, Bidding and Proposal Management Handbook Version 1.0 provides an integrated framework for developing, controlling, and delivering competitive tenders in engineering and construction projects. It establishes a structured methodology that combines capture strategy, tender governance, requirement management, scope and Work Breakdown Structure (WBS) development, technical proposal preparation, engineering calculations, constructability assessment, procurement and subcontracting, cost estimating, pricing, schedule development, risk and contingency planning, commercial and contractual review, HSE, quality, inspection, commissioning, document control, negotiation, and post-award handover. The handbook emphasizes the principle of traceability, ensuring that every client requirement is linked to an accountable owner and response, every scope assumption is tied to a cost and schedule basis, every vendor input is subject to controlled evaluation, every risk is matched with an approved treatment, and every contract commitment is supported by explicit commercial and technical allowances. This approach enables management to approve bids with full visibility of delivery obligations and allows project teams to inherit a reproducible tender basis upon award. Technical chapters include calculation notes and worked examples for expected monetary value, contingency, escalation, selling price, productivity, duration, and win-adjusted opportunity value. Practical tools such as technical tables, checklists, material and equipment control principles, inspection and ITP frameworks, maintenance and reliability assumptions, tender records, and approval forms are provided to support consistent application. The handbook also offers industrial sector application guidance across Oil & Gas, Petrochemical, Chemical, Power Plant, Water & Wastewater, Mining, Manufacturing, Offshore, Infrastructure, and Marine projects. By integrating technical rigor with commercial discipline, the framework ensures that tenders are competitive, auditable, and aligned with project execution realities. The objective is to help EPC and construction teams convert tender requirements into structured, evidence-based proposals that improve decision quality, enhance competitiveness, preserve contractual rights, and provide a clear foundation for successful project delivery.

Rp499.000
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Construction

EPC PROCUREMENT SUPPLY CHAIN MANAGEMENT

The EPC Procurement & Supply Chain Management Handbook Version 1.0 establishes a comprehensive lifecycle framework for transforming approved EPC requirements into controlled commercial commitments and reliable project deliveries. It provides structured guidance across governance, procurement strategy, packaging, supplier qualification, requisitions, tendering, bid evaluation, negotiation, purchase orders, vendor data management, expediting, inspection, logistics, warehousing, site material control, critical equipment, bulk materials, subcontracting, digital procurement, supply-chain risk management, cost control, claims, spares, warranty, and close-out. The technical approach is anchored in five recurring controls: verified input, approved sourcing and evaluation, controlled commitment, measurable supplier execution, and documented delivery and acceptance. These controls ensure that procurement activities remain auditable, traceable, and aligned with project objectives. By embedding these checkpoints throughout the procurement lifecycle, the handbook strengthens assurance, reduces risk exposure, and enhances delivery reliability. Worked examples illustrate practical applications such as bid normalization, total cost estimation, lead-time modeling, risk evaluation, inventory measurement, and procurement KPI interpretation. These examples provide project teams with quantitative tools to validate procurement decisions and monitor supplier performance. Tables and forms emphasize traceability from engineering source data to procurement records and eventual field release, ensuring that every material and equipment item is supported by verifiable documentation. The handbook also demonstrates scalability across Oil & Gas, Petrochemical, Chemical, Power, Water & Wastewater, Mining, Manufacturing, Offshore, Infrastructure, and Marine projects. Its structured methodology enables EPC teams to integrate procurement and supply-chain management seamlessly into project execution, ensuring that contractual obligations, technical requirements, and delivery schedules are consistently achieved. The objective is to elevate procurement from a transactional function to a disciplined project control mechanism. By combining governance, technical rigor, and lifecycle documentation, the EPC Procurement & Supply Chain Management Handbook delivers a professional, auditable, and field-usable reference. It enhances decision quality, reduces commercial leakage, and establishes a reliable baseline for safe, efficient, and compliant project delivery.

Rp499.000
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Construction

EPC CONTRACT CLAIMS CHANGE ORDER MANAGEMENT

The EPC Contract Claims and Change Order Management Handbook provides a comprehensive and practical framework for managing Engineering, Procurement, and Construction (EPC) contract obligations across the full project lifecycle. It addresses variations, claims, time and cost entitlement, evidence preparation, and dispute resolution, ensuring that contractual rights are preserved and commercial risks are effectively controlled. The handbook explains how contract strategy, scope definition, baseline schedules, payment mechanisms, document hierarchy, notice provisions, change control, and risk allocation interact with engineering, procurement, construction, testing, commissioning, and handover activities. A disciplined claim methodology is developed, built on the principles of entitlement, causation, and quantum, supported by contemporaneous records and auditable calculations. Technical chapters cover critical topics including delay and disruption, extension of time, acceleration, measured-mile productivity analysis, engineering changes, procurement and logistics impacts, site conditions, force majeure, suspension, termination, performance guarantees, liquidated damages, bonds, insurance, final account reconciliation, and dispute pathways. Worked examples illustrate practical applications such as cost build-ups, schedule impact logic, escalation, productivity loss, payment mechanisms, and settlement concepts. To support implementation, the handbook includes checklists, registers, forms, and control matrices for notices, change orders, claims, extensions of time, procurement, inspection, field release, commissioning, evidence management, and closeout. An industrial application matrix demonstrates scalability across Oil & Gas, Petrochemical, Chemical, Power, Water & Wastewater, Mining, Manufacturing, Offshore, Infrastructure, and Marine projects. By converting contract requirements into repeatable project controls, the framework enhances early-warning systems, improves decision quality, reduces commercial leakage, and resolves issues before they escalate into disputes. The objective is to equip EPC teams with a structured, auditable, and practical roadmap for managing claims and change orders. By integrating contractual discipline with project execution, the handbook ensures that EPC projects achieve both technical delivery and commercial protection, enabling organizations to safeguard entitlements while maintaining constructive relationships with stakeholders.

Rp499.000
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Construction

CONSTRUCTION CLOSE-OUT

Construction Close-Out represents a structured methodology designed to ensure the orderly completion of construction projects and the seamless transfer of facilities to the Owner or Operations organization. This process integrates technical, administrative, and operational elements to achieve a state of readiness where assets are safe, operable, maintainable, and fully documented. The methodology is organized around key stages including systemization, mechanical completion, punch management, compilation of quality dossiers, preparation of as-built records, pre-commissioning, commissioning, performance testing, turnover packages, operations readiness, and final acceptance. Technical controls are embedded throughout the close-out phase to guarantee rigor and accountability. These controls encompass completion metrics to measure progress, material reconciliation to confirm inventory accuracy, defect prioritization to manage outstanding issues, and test certification to validate system performance. Preservation activities safeguard equipment integrity, while spare-parts control ensures operational continuity. Document maturity and CMMS data handover establish a digital foundation for maintenance, warranty management secures contractual obligations, and archive requirements provide long-term traceability. Worked examples illustrate practical applications of the methodology, such as progress weighting to evaluate completion status, punch-list closure rate to monitor issue resolution, spare-parts quantity checks to verify adequacy, data completeness indices to assess documentation quality, and maintenance interval planning to align with reliability objectives. These examples enable project teams to apply standardized practices consistently across diverse project environments. The approach is scalable and applicable to Oil & Gas, Petrochemical, Chemical, Power, Water & Wastewater, Mining, Manufacturing, Offshore, Infrastructure, and Marine projects. By combining technical discipline with operational readiness, Construction Close-Out ensures that the transition from construction to operations is auditable, transparent, and sustainable. The target outcome is a facility with clear custody, defined accountability, and transparent residual-risk ownership, enabling organizations to inherit assets that are not only physically complete but also administratively robust.

Rp499.000
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Construction

CONSTRUCTION PROGRESS PRODUCTIVITY REPORTING

The Construction Progress and Productivity Reporting Handbook Version 1.0 provides a comprehensive framework for measuring, analyzing, and reporting construction progress and productivity across engineering, procurement, and construction (EPC), industrial, and infrastructure projects. It establishes an integrated methodology that connects schedule control, installed quantities, labor and equipment productivity, earned value, material readiness, inspection release, workfront constraints, logistics, digital reality capture, and system completion into one auditable information cycle. Core methods include weighted physical progress, quantity‑based rules of credit, schedule performance index (SPI), cost performance index (CPI), productivity factor/index, earned manhours, forecast at completion, trend analysis, S‑curves, look‑ahead planning, critical path review, and delay/disruption assessment. Worked examples illustrate practical applications such as earned value reconciliation, productivity factor calculation, SPI/CPI interpretation, and S‑curve forecasting. These examples are deliberately transparent to demonstrate engineering reasoning, while reinforcing that project‑specific validated data and approved deliverables must govern final execution. The handbook also provides practical control tables, technical checklists, inspection records, maintenance frequencies, commissioning forms, and sector application matrices. Execution methodology emphasizes cut‑off discipline, common coding, approval of measurement rules, evidence of completion, reconciliation between disciplines, and documented change control. Reporting is positioned not merely as a data exercise but as a governance system that enables project teams to understand where work stands, why performance differs from plan, and what corrective action is required. Visual content includes structured diagrams, progress dashboards, and lifecycle schematics to support implementation and training. The handbook consolidates calculation notes, inspection records, and commissioning templates into a consistent reporting framework that strengthens traceability, accountability, and management action. By combining technical rigor with reproducible workflows and lifecycle governance, the Construction Progress and Productivity Reporting Handbook Version 1.0 equips project managers, engineers, planners, QA/QC inspectors, HSE personnel, commissioning specialists, and operators with a disciplined roadmap for reliable progress measurement and productivity reporting, ensuring transparency, efficiency, and readiness for long‑term asset performance.

Rp499.000
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Construction

CONSTRUCTION MATERIAL CONTROL AND WAREHOUSING

The Construction Material Control and Warehousing Handbook Version 1.0 provides a comprehensive framework for managing construction materials from design definition through project handover. It establishes a structured methodology that integrates material planning, procurement interfaces, source release, packing and transportation, receiving, incoming inspection, warehouse zoning, preservation, traceability, issue and return transactions, reconciliation, and final close‑out. Technical sections include representative calculation methods for warehouse capacity, reorder points, safety stock levels, preservation interval planning, discrepancy rates, inventory accuracy, cable drum utilization, pipe storage density, and equipment preservation scheduling. Worked examples demonstrate how engineering quantities can be translated into storage, handling, and inspection requirements, ensuring that project teams maintain readiness and minimize risk. Quality control content emphasizes material inspection requests, inspection and test plan (ITP) concepts, receiving inspection records, nonconformance and quarantine controls, field release procedures, commissioning spares registers, and preservation records. The handbook also provides material specification guidance, maintenance and reliability practices for stored equipment, sector application matrices, and digital traceability concepts using barcode, QR, and RFID technologies. Execution methodology highlights procurement traceability, vendor‑document controls, logistics planning, and progressive completions. Construction workflows integrate mechanical, civil, electrical, instrumentation, and telecom disciplines with safety safeguards and quality assurance. Commissioning interface chapters embed turnover documentation, inspection records, and reliability indicators, ensuring safe energization and sustainable performance. The handbook also includes technical tables, checklists, material lists, inspection records, and engineering flow diagrams. Sample forms such as receiving logs, preservation sheets, discrepancy reports, and warehouse zoning maps are provided to support implementation and training. Visual content is formatted for A4 professional print output, combining structured diagrams with field‑style illustrations to reinforce usability. By combining technical rigor with reproducible workflows and lifecycle governance, the Construction Material Control and Warehousing Handbook Version 1.0 equips project managers, engineers, QA/QC inspectors, HSE personnel, commissioning specialists, and operators with a disciplined roadmap for reliable material control, reducing loss, deterioration, installation delays, and surplus while improving construction readiness and turnover quality.

Rp499.000
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Construction

PAINTING COATING INSULATION FIREPROOFING

The Painting, Coating, Insulation, and Fireproofing Construction Handbook Version 1.0 provides a lifecycle framework for protective surface engineering across oil and gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine projects. It establishes a structured methodology that integrates design intent, material selection, surface preparation, application, inspection, commissioning, and maintenance into a traceable and auditable system. Technical coverage includes corrosion mechanisms, coating system selection, abrasive blasting and alternative surface preparation methods, wet‑film thickness (WFT) and dry‑film thickness (DFT) calculations, consumption estimation, coating defect identification, tank linings, pipeline coatings, thermal insulation design, heat‑loss and condensation control, cladding systems, corrosion under insulation (CUI) mitigation, removable covers, and cementitious and intumescent passive fire protection. Each discipline is supported by calculation notes, procurement controls, inspection and test plan (ITP) concepts, inspection records, maintenance frequencies, and reliability guidance. Worked examples illustrate governing principles such as WFT/DFT conversion, coating area estimation, insulation thickness calculation, heat‑loss evaluation, condensation risk assessment, and fireproofing coverage planning. These examples are deliberately transparent to demonstrate engineering reasoning, while reinforcing that project‑specific validated data and approved deliverables must govern final execution. Execution methodology emphasizes procurement traceability, vendor‑document controls, fabrication readiness, logistics planning, and progressive completions. Construction workflows integrate mechanical, civil, electrical, instrumentation, and safety disciplines with quality assurance and HSE safeguards. Commissioning interface chapters embed turnover documentation, inspection records, and reliability indicators, ensuring safe energization and sustainable performance. The handbook also provides technical tables, checklists, material lists, engineering flow diagrams, and sample forms such as inspection sheets, coating logs, insulation records, fireproofing release notes, and maintenance templates. All visual material is embedded in the Word file and formatted for A4 professional print output, combining photorealistic construction references with three‑dimensional engineering process diagrams. By combining technical rigor with reproducible workflows and lifecycle governance, the Painting, Coating, Insulation, and Fireproofing Construction Handbook Version 1.0 equips project managers, engineers, QA/QC inspectors, HSE personnel, commissioning specialists, and operators with a disciplined roadmap for reliable protective system execution, ensuring safety, efficiency, and readiness for long‑term asset performance.

Rp499.000
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Construction

WELDING AND NDT CONSTRUCTION HANDBOOK

The Welding and NDT Construction Handbook Version 1.0 provides a comprehensive framework for welding and nondestructive testing (NDT) construction control across oil and gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine projects. It establishes a lifecycle methodology that integrates design, material control, fabrication, inspection, commissioning, and in‑service reliability into a traceable and auditable system. Coverage includes welding metallurgy; shielded metal arc welding (SMAW), gas tungsten arc welding (GTAW), gas metal arc welding/flux‑cored arc welding (GMAW/FCAW), and submerged arc welding (SAW) processes; carbon, low‑alloy, stainless, duplex, and nickel‑alloy materials; consumable management; joint preparation; preheat and post‑weld heat treatment (PWHT); welding procedure specification (WPS), procedure qualification record (PQR), and welder qualification; shop and field execution; and applications in piping, pipeline, structural, vessel, and tank construction. NDT coverage spans visual testing (VT), penetrant testing (PT), magnetic particle testing (MT), ultrasonic testing (UT), radiographic testing (RT), phased array ultrasonic testing (PAUT), and time‑of‑flight diffraction (TOFD). Additional methods include positive material identification (PMI), hardness testing, ferrite measurement, and leak testing. Technical chapters provide calculation notes, procurement and material controls, acceptance logic, inspection records, sector application matrices, and lifecycle guidance from design and fabrication through transport, heavy‑lift installation, construction, commissioning, and in‑service inspection. Worked examples illustrate governing principles such as weld group strength checks, heat input calculations, defect acceptance criteria, ultrasonic signal interpretation, and radiographic film evaluation. These examples are deliberately transparent to demonstrate engineering reasoning, while reinforcing that project‑specific validated data and approved deliverables must govern final execution. The handbook also provides reusable forms, inspection checklists, ITP templates, field‑release logic, commissioning records, and maintenance frequencies. By combining technical rigor with reproducible workflows and lifecycle governance, the Welding and NDT Construction Handbook Version 1.0 equips project managers, engineers, QA/QC inspectors, HSE personnel, commissioning specialists, and operators with a disciplined roadmap for reliable welding and NDT execution, ensuring safety, efficiency, and readiness for long‑term asset performance.

Rp499.000
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Construction

FIRE PROTECTION SYSTEM CONSTRUCTION

The Fire Protection System Construction Handbook Version 1.0 provides a comprehensive technical framework for the construction, installation, inspection, testing, and lifecycle management of fire protection systems across industrial and infrastructure projects. Coverage includes firewater storage and pumping, ring mains, hydrants, monitors, sprinklers, deluge systems, water spray, foam systems, gaseous suppression, clean‑agent systems, alarms, passive fire protection, piping, civil works, welding and nondestructive examination (NDE), testing, commissioning, QA/QC, and maintenance. The handbook integrates engineering design intent with construction execution, ensuring that every stage of fire protection implementation is traceable, auditable, and aligned with approved project requirements. Technical chapters combine theory with practical execution, supported by calculation notes, material specifications, inspection and test plan (ITP) concepts, inspection records, field‑release requirements, commissioning forms, maintenance frequencies, and industrial application matrices. Worked examples illustrate governing principles such as hydrostatic test preparation, pump duty verification, sprinkler density checks, foam solution calculations, and alarm interface testing. These examples are intentionally transparent to demonstrate engineering reasoning, while reinforcing that project‑specific validated data and approved deliverables must govern final execution. Execution methodology emphasizes procurement traceability, vendor‑document controls, fabrication readiness, logistics planning, and progressive completions. Construction workflows integrate mechanical, civil, electrical, instrumentation, and telecom disciplines with safety safeguards and quality assurance. Commissioning interface chapters embed turnover documentation, inspection records, and reliability indicators, ensuring safe energization and sustainable performance. The handbook also provides reusable forms, inspection checklists, commissioning templates, and sector application matrices. Visual aids include technical tables, structured diagrams, and lifecycle schematics to support implementation, training, and communication. All examples, drawings, and field‑reference visuals must be validated against project‑specific requirements before acceptance for construction. By combining technical rigor with reproducible workflows and lifecycle governance, the Fire Protection System Construction Handbook Version 1.0 equips project managers, engineers, QA/QC inspectors, HSE personnel, commissioning specialists, and operators with a disciplined roadmap for reliable fire protection execution, ensuring safety, efficiency, and readiness for long‑term asset performance.

Rp499.000
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Construction

TELECOMMUNICATION AND SECURITY SYSTEM CONSTRUCTION

The Telecommunication and Security System Construction Handbook Version 1.0 provides a comprehensive construction reference for telecommunication and security systems across industrial and infrastructure projects. It establishes a lifecycle methodology that spans engineering readiness, material compliance, preservation, installation, inspection, testing, commissioning, handover, and maintenance preparation. Coverage includes telecom rooms and racks, copper and fiber cabling, telephone, intercom, and public address/general alarm (PAGA) systems, closed‑circuit television (CCTV), access control, intrusion detection, physical security information management (PSIM), radio, microwave, Wi‑Fi, satellite, IP networks, time synchronization, telecom power, earthing, cable routes, hazardous‑area installations, offshore environments, construction logistics, QA/QC, and cyber‑physical security. Each chapter integrates design‑basis reminders with construction controls, ensuring that field decisions remain aligned with approved specifications, installation tolerances, inspection gates, and acceptance criteria. Technical sections include calculation notes for optical power budgets, copper channel lengths, RF link budgets, Power‑over‑Ethernet (PoE) loading, UPS autonomy, battery capacity, network utilization, storage sizing, and earthing verification. Worked examples illustrate practical engineering checks such as fiber‑loss calculations, radio link feasibility, UPS battery sizing, and CCTV storage capacity planning. These examples are deliberately transparent to demonstrate engineering reasoning, while reinforcing that project‑specific validated data and approved deliverables must govern final execution. Execution methodology emphasizes procurement traceability, vendor‑document controls, logistics planning, and progressive completions. Construction workflows integrate mechanical, electrical, instrumentation, and telecom disciplines with safety safeguards and quality assurance. Commissioning interface chapters embed turnover documentation, inspection records, and reliability indicators, ensuring safe energization and sustainable performance. The handbook also provides reusable forms, inspection checklists, commissioning templates, and sector application matrices. Visual aids include technical tables, structured diagrams, and lifecycle schematics to support implementation, training, and communication. By combining technical rigor with reproducible workflows and lifecycle governance, the Telecommunication and Security System Construction Handbook Version 1.0 equips project managers, engineers, QA/QC inspectors, HSE personnel, commissioning specialists, and operators with a disciplined roadmap for reliable telecom and security execution, ensuring safety, efficiency, and readiness for long‑term asset performance.

Rp499.000
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Construction

INSTRUMENT CONTROL CONSTRUCTION

The Instrumentation and Control Construction Handbook Version 1.0 provides a construction‑focused reference for instrumentation, control systems, and associated infrastructure across industrial and infrastructure projects. It establishes a lifecycle methodology that spans detailed engineering, procurement, receiving, preservation, field installation, inspection, calibration, loop checking, functional testing, pre‑commissioning, commissioning, handover, and maintenance readiness. Technical coverage includes pressure, temperature, flow, level, and analytical instruments; control and on‑off valves; instrument air systems; impulse piping and tubing; supports; junction boxes and panels; distributed control system (DCS), programmable logic controller (PLC), and safety instrumented system (SIS) hardware; power and earthing; copper and fiber communication networks; cable routing, pulling, glanding, and termination; QA/QC requirements; system completion; documentation; logistics; industrial application matrices; HSE safeguards; reliability planning; and spare‑parts philosophy. Each chapter integrates design‑basis reminders with construction controls, ensuring that field decisions remain aligned with electrical ratings, fault withstand capacity, protection philosophy, environmental classification, and maintainability requirements. Worked examples illustrate practical engineering checks such as pressure transmitter calibration, loop continuity verification, valve stroke testing, cable voltage‑drop calculation, and fiber‑optic termination logic. These examples are deliberately transparent to demonstrate engineering reasoning, while reinforcing that project‑specific validated data and approved deliverables must govern final execution. The handbook contains more than 200 pages of structured guidance, supported by chapter‑specific three‑dimensional engineering schematics, field‑style illustrations, lifecycle flow diagrams, technical tables, checklists, material lists, inspection records, calculation notes, and commissioning templates. All visual material is embedded in the Word file and formatted for A4 professional print output, ensuring usability in both office and field environments. Applications extend across oil and gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine projects. By combining technical rigor with reproducible workflows and lifecycle governance, the Instrumentation and Control Construction Handbook Version 1.0 equips project managers, engineers, QA/QC inspectors, HSE personnel, commissioning specialists, and operators with a disciplined roadmap for reliable instrumentation execution, ensuring safety, efficiency, and readiness for long‑term asset performance.

Rp499.000
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Construction

ELECTRICAL CONSTRUCTION

The Electrical Construction Handbook Version 1.0 provides an integrated reference for the complete electrical installation lifecycle, spanning construction engineering, material receiving, installation, inspection, pre‑commissioning, energization, start‑up, handover, and reliability support. It establishes a structured methodology that connects engineering readiness, material control, construction execution, and commissioning into a traceable and auditable framework. Technical coverage includes substations, transformers, medium‑ and low‑voltage (MV/LV) switchgear, motor control centers (MCCs), power distribution systems, underground raceways, cable trays, power and control cabling, earthing, lightning protection, lighting systems, UPS/DC installations, generators, motors, heat tracing, fire alarm systems, telecommunications, cathodic protection, hazardous‑area installations, offshore/marine practices, and electrical testing. Each chapter combines design‑basis reminders with construction controls, ensuring that field decisions remain aligned with electrical ratings, fault withstand capacity, voltage‑drop limits, protection philosophy, environmental classification, and maintainability requirements. Technical sections include cable voltage‑drop and pulling calculations, earthing fundamentals, torque and termination concepts, insulation‑resistance testing, protection interfaces, material specifications, inspection and test plan (ITP) concepts, and commissioning forms. Worked examples illustrate practical engineering checks such as cable sizing, earthing resistance verification, torque logging, continuity testing, and insulation‑resistance measurement. Typical inspection points are tied to objective records including torque logs, insulation‑resistance results, continuity tests, earth‑resistance measurements, and functional checks. The handbook is structured for ready project use, with harmonized tables, readable captions, controlled margins, and chapter‑specific diagrams. Final sections consolidate calculation notes, checklists, inspection records, maintenance frequencies, industrial application matrices, and turnover guidance. Visual content includes technical tables, structured diagrams, and lifecycle schematics to support implementation, training, and communication. Applications extend across oil and gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine projects, subject to project‑specific codes, owner requirements, and authority approvals. By combining technical rigor with reproducible workflows and lifecycle governance, the Electrical Construction Handbook Version 1.0 equips project managers, engineers, QA/QC inspectors, HSE personnel, commissioning specialists, and operators with a disciplined roadmap for reliable electrical execution, ensuring safety, efficiency, and readiness for long‑term asset performance.

Rp499.000
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Construction

STORAGE TANK CONSTRUCTION

The Storage Tank Construction Handbook Version 1.0 provides an end‑to‑end technical framework for the design, fabrication, erection, inspection, testing, and lifecycle management of storage tanks. It covers atmospheric and low‑pressure tank applications and integrates construction execution with engineering design intent, material control, welding quality, nondestructive examination (NDE), hydrostatic testing, coating, corrosion protection, accessories, piping and instrumentation interfaces, fire protection, HSE, commissioning, and maintenance. The technical content is organized into 45 chapters and six appendices, offering a structured reference for multidisciplinary teams. Major subjects include tank foundations; bottom, shell, and roof erection; floating roofs; structural attachments; material traceability; fabrication; welding; dimensional control; inspection; testing; surface protection; cathodic protection; insulation; piping settlement allowances; overfill prevention; fire and foam systems; heavy lifting; quality management; progress measurement; mechanical completion; commissioning; handover; API 653‑style inspection concepts; repair; decommissioning; and industrial application matrices. Worked examples illustrate practical engineering checks such as hydrotest loading, shell circumference and diameter verification, settlement interpretation, material quantity estimation, weld length planning, coating area estimation, and inspection planning. These examples are intentionally transparent to demonstrate engineering reasoning, while reinforcing that project‑specific validated data and approved deliverables must govern final execution. The handbook also provides reusable forms and templates, including ITPs, material receiving records, fit‑up reports, weld maps, NDE logs, vacuum box records, hydrotest checklists, coating inspection sheets, field release notes, mechanical completion certificates, commissioning records, maintenance inspection sheets, and document registers. Visual aids combine technical tables, structured diagrams, and field‑realistic construction images to support implementation, training, and communication. Applications extend across oil and gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, and infrastructure/marine projects. By combining technical rigor with reproducible workflows and lifecycle governance, the Storage Tank Construction Handbook Version 1.0 equips project managers, engineers, QA/QC inspectors, HSE personnel, commissioning specialists, and operators with a disciplined roadmap for reliable tank construction, ensuring safety, efficiency, and readiness for long‑term asset performance.

Rp499.000
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Construction

ROTATING EQUIPMENT CONSTRUCTION

The Rotating Equipment Construction Handbook Version 1.0 provides a structured technical reference for the construction, installation, and lifecycle management of rotating equipment across industrial and infrastructure projects. It covers centrifugal and positive displacement pumps, centrifugal and reciprocating compressors, steam and gas turbines, electric motors, gearboxes, fans, blowers, and associated auxiliaries. The content spans engineering review, procurement, factory acceptance testing (FAT), preservation, heavy lifting, foundations, setting and grouting, alignment, piping interfaces, seal and lubrication systems, condition monitoring, electrical and control interfaces, commissioning, performance testing, troubleshooting, reliability maintenance, HSE, quality control, progress management, digital handover, and project close‑out. Technical chapters integrate engineering theory with practical execution, supported by calculation notes, material specifications, procurement controls, inspection and test plan (ITP) concepts, inspection records, field‑release requirements, maintenance frequencies, and industrial application guidance. Worked examples illustrate governing principles such as shaft alignment tolerances, vibration acceptance criteria, lubrication system checks, torque calculations, and performance test logic. These examples are intentionally transparent to demonstrate engineering reasoning, while reinforcing that project‑specific validated data and approved deliverables must govern final execution. Execution methodology emphasizes procurement traceability, vendor‑document controls, fabrication readiness, logistics planning, and progressive completions. Construction workflows integrate mechanical, civil, electrical, instrumentation, and control disciplines with safety safeguards and quality assurance. Commissioning interface chapters embed turnover documentation, inspection records, and reliability indicators, ensuring safe energization and sustainable performance. The handbook also provides reusable forms, inspection checklists, commissioning templates, and sector application matrices. Visual aids include technical tables, structured diagrams, and three‑dimensional engineering illustrations to support implementation and training. Reliability content addresses preventive maintenance preparation, spare‑parts philosophy, anomaly assessment, repair strategies, and lessons learned, embedding risk‑based planning into long‑term asset management. By combining technical rigor with reproducible workflows and lifecycle governance, the Rotating Equipment Construction Handbook Version 1.0 equips project managers, engineers, QA/QC inspectors, HSE personnel, commissioning specialists, and operators with a disciplined roadmap for reliable rotating equipment execution, ensuring safety, efficiency, and readiness for long‑term asset performance.

Rp499.000
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Construction

STATIC EQUIPMENT CONSTRUCTION

The Static Equipment Construction Handbook Version 1.0 provides a lifecycle framework for the planning, fabrication, installation, inspection, testing, and reliability management of static equipment across industrial sectors. It establishes a structured methodology that integrates classification, design basis, material selection, procurement controls, fabrication readiness, installation procedures, inspection requirements, and commissioning readiness into a traceable and auditable system. Major equipment groups covered include pressure vessels, atmospheric and low‑pressure storage tanks, shell‑and‑tube heat exchangers, air‑cooled exchangers, process columns, towers, and drums. Engineering topics address design pressure and temperature, corrosion allowance, load management, supports, nozzle configurations, thermal design interfaces, and basic calculation notes. Construction topics emphasize receiving, preservation, heavy transport, rigging, setting, alignment, grouting, piping interface control, and mechanical completion. Technical chapters combine theory with practical execution, supported by technical tables, checklists, worked examples, inspection and test plan (ITP) concepts, procurement registers, field‑release requirements, maintenance frequencies, and industrial application guidance. Worked examples illustrate governing principles such as wall‑thickness verification, nozzle reinforcement checks, support load distribution, and hydrotest preparation. These examples are intentionally transparent to demonstrate engineering reasoning, while reinforcing that project‑specific validated data and approved deliverables must govern final execution. Execution methodology emphasizes procurement traceability, vendor‑document controls, fabrication readiness, logistics planning, and progressive completions. Construction workflows integrate mechanical, civil, electrical, instrumentation, and telecom disciplines with safety safeguards and quality assurance. Commissioning interface chapters embed turnover documentation, inspection records, and reliability indicators, ensuring safe energization and sustainable performance. The handbook also emphasizes traceability, code compliance, quality hold points, documented acceptance, and risk‑based lifecycle integrity. Visual content is designed as a practical learning aid, with distinct three‑dimensional engineering diagrams and field‑construction visualizations for each chapter. By combining technical rigor with reproducible workflows and lifecycle governance, the Static Equipment Construction Handbook Version 1.0 equips project managers, engineers, QA/QC inspectors, HSE personnel, commissioning specialists, and operators with a disciplined roadmap for reliable static equipment execution, ensuring safety, efficiency, and readiness for long‑term asset performance.

Rp499.000
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Construction

PIPELINE CONSTRUCTION

The Pipeline Construction Handbook Version 1.0 provides an integrated reference for the planning and execution of pipeline projects across oil and gas, petrochemical, chemical, power, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine sectors. It establishes a lifecycle methodology that spans project definition, route development, design, material specification, procurement, field construction, welding, nondestructive testing (NDT), coating, trenching, lowering‑in, crossings, hydrotesting, commissioning, cathodic protection, integrity management, operation, and maintenance. Technical chapters combine engineering theory with practical execution, supported by simplified hydraulic and mechanical equations, construction calculations, worked examples, specification checkpoints, procurement controls, inspection and test plans (ITPs), field‑release criteria, commissioning forms, maintenance frequencies, reliability considerations, and industrial application matrices. Worked examples illustrate governing principles such as pressure drop calculations, weld acceptance criteria, coating thickness verification, trench stability checks, and hydrotest logic. These examples are intentionally transparent to demonstrate engineering reasoning, while reinforcing that project‑specific validated data and approved deliverables must govern final execution. Execution methodology emphasizes procurement traceability, vendor‑document controls, fabrication readiness, logistics planning, and progressive completions. Construction workflows integrate mechanical, civil, electrical, instrumentation, telecom, and marine disciplines with safety safeguards and quality assurance. Commissioning interface chapters embed turnover documentation, inspection records, and reliability indicators, ensuring safe energization and sustainable performance. The handbook also provides reusable forms, inspection checklists, commissioning templates, and sector application matrices. Visual aids include technical tables, structured diagrams, and lifecycle schematics to support implementation and training. Reliability content addresses preventive maintenance preparation, spare‑parts philosophy, anomaly assessment, repair strategies, and lessons learned, embedding risk‑based planning into long‑term asset management. The governing requirement is always the approved project design basis and applicable codes or regulations. By combining technical rigor with reproducible workflows and lifecycle governance, the Pipeline Construction Handbook Version 1.0 equips project managers, engineers, QA/QC inspectors, HSE personnel, commissioning specialists, and operators with a disciplined roadmap for reliable pipeline execution, ensuring safety, efficiency, and readiness for long‑term asset performance.

Rp499.000
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Construction

PIPING CONSTRUCTION HANDBOOK

The Piping Construction Handbook Version 1.0 presents a comprehensive methodology for piping construction across oil and gas, petrochemical, chemical, power, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine projects. It establishes a structured framework that integrates organization, HSE, materials, fabrication, welding, nondestructive examination (NDE), post‑weld heat treatment (PWHT), supports, erection, underground piping, flange management, specialty items, non‑metallic piping, cleaning, testing, coating, insulation, completion, commissioning, and integrity management. The technical approach is based on a controlled sequence: verify engineering readiness, preserve material identity, fabricate within dimensional tolerances, control welding variables, inspect against approved criteria, install in a stress‑free condition, test by system, reinstate correctly, and transfer complete evidence to operations. This sequence ensures traceability, quality assurance, and safe execution across all piping disciplines. Worked examples illustrate basic engineering checks such as wall‑thickness verification, hydrotest pressure calculation, flange bolt torque, support load distribution, and stress‑free installation logic. These examples are deliberately simplified to demonstrate engineering reasoning, while reinforcing that project‑specific validated data and approved deliverables must govern final execution. Execution methodology emphasizes procurement traceability, vendor‑document controls, fabrication readiness, logistics planning, and progressive completions. Construction workflows integrate mechanical, civil, electrical, instrumentation, and telecom disciplines with safety safeguards and quality assurance. Commissioning interface chapters embed turnover documentation, inspection records, and reliability indicators, ensuring safe energization and sustainable performance. The handbook also includes template inspection and test plan (ITP) content, inspection forms, field‑release logic, maintenance frequency guidance, material and procurement controls, industrial application matrices, and calculation notes. Visual aids include technical tables, structured diagrams, and lifecycle schematics to support implementation and training. By combining technical rigor with reproducible workflows and lifecycle governance, the Piping Construction Handbook Version 1.0 equips project managers, engineers, QA/QC inspectors, HSE personnel, commissioning specialists, and operators with a disciplined roadmap for reliable piping execution, ensuring safety, efficiency, and readiness for long‑term asset performance.

Rp499.000
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Construction

BUILDING AND ARCHITECTURAL CONSTRUCTION

The Building and Architectural Construction Handbook Version 1.0 provides a structured technical reference for building and architectural works across industrial and infrastructure projects. It establishes a comprehensive methodology that integrates design criteria, execution methods, material specifications, calculation notes, worked examples, QA/QC tools, inspection and test plan (ITP) concepts, inspection records, field releases, commissioning requirements, maintenance procedures, and industrial application matrices. The handbook is organized for engineering, construction, procurement, quality, and commissioning personnel, emphasizing traceable interfaces, constructability, dimensional control, envelope performance, fire and life safety, and maintainability. Technical chapters combine theory with practical execution, supported by calculation notes for load distribution, dimensional tolerances, energy performance, and fire‑safety ratings. Worked examples illustrate governing principles such as envelope thermal performance, fire‑resistance verification, accessibility compliance, and dimensional control checks. These examples are intentionally transparent to demonstrate engineering reasoning, while reinforcing that project‑specific validated data and approved deliverables must govern final execution. Execution methodology emphasizes procurement traceability, vendor‑document controls, fabrication readiness, logistics planning, and progressive completions. Construction workflows integrate civil, structural, architectural, mechanical, electrical, and safety disciplines with quality assurance and HSE safeguards. Commissioning interface chapters embed turnover documentation, inspection records, and reliability indicators, ensuring safe energization and sustainable performance. Governance principles define document‑control philosophy: Always use the latest approved project specifications and drawings. Resolve discrepancies through formal technical query or RFI processes. Do not conceal work before required inspection and acceptance. Maintain traceable material, inspection, test, and turnover records. Apply approved method statements, lifting plans, and HSE controls. The handbook also provides reusable forms, inspection checklists, commissioning templates, and sector application matrices. Visual aids include technical tables, structured diagrams, and three‑dimensional engineering illustrations to support implementation and training. By combining technical rigor with reproducible workflows and lifecycle governance, the Building and Architectural Construction Handbook Version 1.0 equips multidisciplinary teams with a disciplined roadmap for reliable building execution, ensuring safety, quality, and readiness for long‑term asset performance.

Rp499.000
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Construction

FOUNDATION CONSTRUCTION

The Foundation Construction Handbook Version 1.0 provides a comprehensive lifecycle framework for foundation works, spanning site investigation, design readiness, fabrication, transport, installation, construction close‑out, inspection, commissioning interface, and in‑service monitoring. It integrates theory with practical execution, ensuring that every stage of foundation construction is traceable, auditable, and aligned with approved engineering deliverables. Technical chapters cover completion philosophy, systemization, database control, static and rotating equipment foundations, piping supports, valves, HVAC bases, lifting systems, fire protection interfaces, cleaning and flushing, preservation, inspection, vendor packages, offshore installation, hook‑up, handover, and close‑out assurance. Each discipline is supported by calculation notes, material specifications, procurement controls, inspection and test plan (ITP) requirements, inspection forms, field‑release logic, maintenance frequencies, reliability actions, punch management, and sector applicability. Worked examples illustrate governing principles such as bearing pressure checks, compaction acceptance, anchor‑bolt alignment, drainage capacity, and load transfer. Visual content includes distinct three‑dimensional engineering diagrams and field‑construction visualizations, reinforcing constructability and communication between design and site teams. Technical tables, checklists, and commissioning forms provide reusable tools for implementation and training. Reliability guidance addresses preventive maintenance preparation, spare‑parts philosophy, anomaly assessment, repair strategies, and lessons learned, embedding risk‑based planning into long‑term asset management. The handbook emphasizes four guiding principles: Safety before production — work must stop when conditions do not comply with permits or required risk controls. Quality is built in — inspection complements, but does not replace, proper workmanship and supervision. Traceability — materials, test results, survey records, NCR dispositions, and release notes must remain fully auditable. Constructability — sequences must consider access, temporary works, lifting, dewatering, and underground interfaces. Applications extend across oil and gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine projects. By combining technical rigor with reproducible workflows and lifecycle governance, the Foundation Construction Handbook Version 1.0 equips project teams with a disciplined roadmap for reliable foundation execution, ensuring safety, efficiency, and readiness for long‑term asset performance.

Rp499.000
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Construction

CIVIL AND EARTHWORKS CONSTRUCTION

The Civil and Earthworks Construction Handbook Version 1.0 provides a comprehensive field‑oriented reference for civil and earthworks construction across oil and gas, petrochemical, chemical, power, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine projects. It establishes a structured methodology that links engineering design information to construction sequence, equipment selection, material control, temporary works, inspection, and final handover. Technical chapters integrate theory with practical execution, ensuring that design assumptions are traceable to measurable field parameters. Calculation notes include earthwork quantities, compaction acceptance, equipment production rates, bearing pressure, drainage capacity, and completion metrics. Worked examples illustrate governing principles such as cut‑and‑fill balancing, compaction ratios, drainage flow, and bearing capacity checks. These examples are intentionally transparent to demonstrate engineering reasoning, while reinforcing that project‑specific validated data and approved deliverables must govern final execution. Execution methodology emphasizes procurement traceability, vendor‑document controls, fabrication readiness, logistics planning, and progressive completions. Construction workflows integrate surveying, geotechnical preparation, excavation, embankment, compaction, drainage, and structural interfaces with safety safeguards and quality assurance. Commissioning interface chapters embed turnover documentation, inspection records, and reliability indicators, ensuring safe energization and sustainable performance. The handbook also provides technical tables that define typical controls for materials, tolerances, tests, records, maintenance, and inspection. Practical checklists and reusable forms reinforce traceability and auditable readiness. Visual aids combine photorealistic construction references with unique three‑dimensional engineering process diagrams for every major subtopic, supporting implementation, training, and communication between design offices and field teams. Applications extend across greenfield and brownfield projects where formation level, stability, drainage, and construction quality are critical to subsequent facilities. By combining technical rigor with reproducible workflows and lifecycle governance, the Civil and Earthworks Construction Handbook Version 1.0 equips project managers, engineers, QA/QC inspectors, HSE personnel, commissioning specialists, and operators with a disciplined roadmap for reliable civil execution, ensuring safety, efficiency, and readiness for long‑term asset performance.

Rp499.000
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Construction

CONSTRUCTION QUALITY MANAGEMENT

The Construction Quality Management Handbook Version 1.0 provides a structured, multi‑discipline reference for quality assurance and quality control (QA/QC) across industrial construction projects. It establishes a comprehensive framework that integrates quality management system (QMS) governance, project quality planning, design and procurement quality, material traceability, civil and structural works, piping and welding, mechanical equipment, electrical and instrumentation systems, coatings and insulation, inspection and test planning, metrology, nonconformance management, audits, commissioning, and turnover. Technical chapters combine theory with practical implementation, supported by field verification logic, calculation notes, worked examples, quality metrics, sample inspection and test plan (ITP) controls, material and equipment lists, inspection forms, maintenance and reliability actions, and sector‑specific application guidance. Worked examples illustrate governing principles such as weld acceptance criteria, bolt torque calculations, coating thickness verification, calibration tolerances, and earned‑value quality indicators. These examples are intentionally transparent to demonstrate engineering reasoning, while reinforcing that project‑specific validated data and approved deliverables must govern final execution. Execution methodology emphasizes procurement traceability, vendor‑document controls, fabrication readiness, logistics planning, and progressive completions. Construction workflows integrate mechanical, civil, electrical, instrumentation, and telecom disciplines with safety safeguards and quality assurance. Commissioning interface chapters embed turnover documentation, inspection records, and reliability indicators, ensuring safe energization and sustainable performance. The handbook also provides reusable forms, checklists, and registers for inspection release, progress tracking, quality audits, HSE compliance, material receiving, commissioning, and project close‑out. Visual aids include technical tables, structured diagrams, and lifecycle schematics to support implementation and training. Reliability content addresses preventive maintenance preparation, spare‑parts philosophy, anomaly assessment, repair strategies, and lessons learned, embedding risk‑based planning into long‑term asset management. Edition note: At the publication date of this handbook, ISO 9001:2015 with Amendment 1:2024 remains a published reference, while ISO 9001 Edition 6 is under publication. Projects must verify the latest applicable edition and contractual adoption before implementation.

Rp499.000
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Construction

CONSTRUCTION HSE MANAGEMENT

The Construction HSE Management Handbook Version 1.0 provides a structured framework for managing health, safety, and environmental (HSE) risks across the construction lifecycle. It establishes a comprehensive methodology that integrates governance, legal and regulatory requirements, hazard identification and risk assessment, HSE planning, contractor control, permit‑to‑work systems, high‑risk work management, occupational hygiene, environmental protection, incident investigation, emergency response, training and competency, workforce communication, monitoring, auditing, continual improvement, close‑out, and lessons learned. Technical chapters combine theory with practical implementation, supported by field‑control tables, inspection checklists, material and equipment safety requirements, calculation notes, worked examples, maintenance and inspection frequencies, forms, records, and application guidance. Worked examples illustrate governing principles such as risk ranking, exposure assessment, lifting load factors, ventilation rates, noise limits, and environmental monitoring thresholds. These examples are intentionally transparent to demonstrate engineering reasoning, while reinforcing that project‑specific validated data and approved deliverables must govern final execution. Execution methodology emphasizes procurement traceability, vendor‑document controls, fabrication readiness, logistics planning, and progressive completions. Construction workflows integrate mechanical, civil, electrical, instrumentation, and telecom disciplines with safety safeguards and quality assurance. Commissioning interface chapters embed turnover documentation, inspection records, and reliability indicators, ensuring safe energization and sustainable performance. The handbook also provides reusable templates such as HSE plans, inspection forms, permit registers, incident reports, and environmental monitoring logs. Visual aids include technical tables, structured diagrams, and lifecycle schematics to support implementation and training. Reliability content addresses preventive maintenance preparation, spare‑parts philosophy, anomaly assessment, repair strategies, and lessons learned, embedding risk‑based planning into long‑term asset management. Applications extend across oil and gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine projects. By aligning with ISO 45001 and ISO 14001 principles while remaining adaptable to project‑specific contractual and regulatory requirements, the Construction HSE Management Handbook Version 1.0 equips multidisciplinary teams with a disciplined roadmap for safe, compliant, and sustainable construction execution.

Rp499.000
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Construction

SITE MOBILIZATION TEMPORARY FACILITIES

The Site Mobilization & Temporary Facilities Handbook Version 1.0 provides a complete framework for managing site mobilization and temporary facilities from early site assessment through final demobilization and reinstatement. It establishes a structured methodology that integrates design criteria, engineering calculations, material specifications, equipment requirements, method statements, logistics controls, inspection and test planning, commissioning records, and maintenance considerations. Technical chapters cover site reconnaissance, layout planning, access roads, utilities, drainage, temporary offices, workshops, warehouses, laydown areas, worker accommodations, safety facilities, and environmental safeguards. Engineering content includes calculation notes for load distribution, bearing capacity, drainage sizing, equipment utilization, and logistics sequencing. Worked examples illustrate governing principles such as site grading, equipment allocation, lifting utilization, and preservation intervals. These examples are intentionally transparent to demonstrate engineering reasoning, while reinforcing that project‑specific validated data and approved deliverables must govern final execution. Execution methodology emphasizes procurement traceability, vendor‑document controls, fabrication readiness, logistics planning, and progressive completions. Construction workflows integrate mechanical, civil, electrical, instrumentation, and telecom disciplines with safety safeguards and quality assurance. Commissioning interface chapters embed turnover documentation, inspection records, and reliability indicators, ensuring safe energization and sustainable performance. The handbook also provides technical tables, material and equipment lists, inspection checklists, maintenance frequencies, and commissioning records to support implementation and training. Practical forms and reusable templates reinforce traceability and auditable readiness. Reliability guidance addresses preventive maintenance preparation, spare‑parts philosophy, anomaly assessment, repair strategies, and lessons learned, embedding risk‑based planning into long‑term asset management. Applications extend across oil and gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, and infrastructure/marine projects. By combining technical rigor with reproducible workflows and lifecycle governance, the Site Mobilization & Temporary Facilities Handbook Version 1.0 equips project managers, engineers, logistics coordinators, QA/QC inspectors, HSE personnel, commissioning teams, and operators with a disciplined roadmap for reliable site mobilization, ensuring safety, efficiency, and readiness for project execution.

Rp499.000
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Construction

CONSTRUCTION PLANNING SCHEDULING

The Construction Planning & Scheduling Handbook Version 1.0 provides a comprehensive methodology for developing, baselining, controlling, and recovering construction schedules across industrial and infrastructure projects. It establishes a structured framework that integrates scope definition, quantity modeling, productivity analysis, resource and cost loading, engineering and procurement interfaces, temporary facilities, heavy equipment planning, discipline construction sequencing, HSE integration, QA/QC requirements, progress measurement, forecasting, delay analysis, commissioning, and digital planning. The handbook emphasizes traceability between scope, quantities, work packages, schedule activities, responsible organizations, progress evidence, and contractual milestones. Technical chapters address schedule hierarchy, coding structures (WBS, CBS, OBS), workface planning, critical path method (CPM), resource allocation, and cost accounts. Practical tools include equations, worked examples, material and procurement controls, inspection and test plan (ITP) concepts, inspection and commissioning forms, maintenance and reliability planning, sector application matrices, and chapter‑specific technical visuals. Worked examples illustrate management indicators such as earned‑value performance, schedule variance, scope growth, readiness indices, productivity measures, retention logic, delivery performance, risk exposure, punch closure, and recovery paths. These examples are intentionally transparent to demonstrate planning logic, while reinforcing that project‑specific validated data and approved deliverables must govern final execution. Execution methodology emphasizes baseline integrity, procurement traceability, vendor‑document controls, fabrication readiness, logistics planning, and progressive completions. Construction workflows integrate mechanical, civil, electrical, instrumentation, and telecom disciplines with safety safeguards and quality assurance. Commissioning interface chapters embed turnover documentation, inspection records, and reliability indicators, ensuring safe energization and sustainable performance. The intended outcome is a planning system capable of answering five management questions at any data date: What must be done? In what sequence? With what resources and constraints? What has actually been achieved? What is the most credible forecast and recovery path? When supported by auditable records, the schedule becomes a practical project‑management instrument rather than a reporting artifact.

Rp499.000
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Construction

CONSTRUCTION MANAGEMENT

The Construction Management Handbook Version 1.0 provides a comprehensive framework for planning, executing, monitoring, controlling, commissioning, and closing construction projects across industrial and infrastructure sectors. It emphasizes the management systems that connect field activities to approved scope, schedule, cost, quality, safety, contractual, procurement, and documentation requirements, ensuring traceability and accountability throughout the project lifecycle. Technical chapters are organized around controlled baselines, work breakdown structures (WBS), logic‑driven schedules, cost accounts, contract and procurement registers, work packaging, site logistics, temporary works, lifting and equipment control, permit‑to‑work systems, inspection and test plans (ITPs), inspection records, change control, master document registers, risk registers, interface management, digital construction, environmental performance, lean methods, systemization, mechanical completion, commissioning, and final handover. Worked examples illustrate key management metrics such as schedule indicators, earned‑value analysis, scope growth, readiness indices, productivity measures, retention logic, delivery performance, risk exposure, punch closure, and other quantifiable outcomes. These examples are intentionally transparent to demonstrate management reasoning, while reinforcing that project‑specific validated data and approved deliverables must govern final execution. Execution methodology emphasizes procurement traceability, vendor‑document controls, fabrication readiness, logistics planning, and progressive completions. Construction workflows integrate mechanical, civil, electrical, instrumentation, and telecom disciplines with safety safeguards and quality assurance. Commissioning interface chapters embed turnover documentation, inspection records, and reliability indicators, ensuring safe energization and sustainable performance. The handbook also provides reusable forms and checklists for construction release, inspection, progress tracking, quality assurance, HSE compliance, material receiving, commissioning, and project close‑out. Visual aids include technical tables, structured diagrams, and lifecycle schematics to support implementation and training. The intended audience includes project managers, construction engineers, planners, QA/QC inspectors, HSE personnel, commissioning teams, logistics coordinators, and operations staff. By combining technical rigor with reproducible workflows and lifecycle governance, the Construction Management Handbook Version 1.0 equips multidisciplinary teams with a disciplined roadmap for reliable project execution, ensuring safety, predictability, quality, and readiness for long‑term operation.

Rp499.000
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Offshore

OFFSHORE DECOMMISSIONING AND REMOVAL

The Offshore Decommissioning and Removal Handbook Version 1.0 provides a comprehensive framework for the safe, environmentally responsible, and technically controlled decommissioning of offshore industrial, marine, and coastal infrastructure assets. It establishes a structured methodology that spans asset survey, engineering design, structural integrity assessment, hazardous‑material control, energy isolation, process cleaning, electrical and instrumentation retirement, heavy lifting, topside and subsea removal, marine spreads, dismantling yards, waste management, material recovery, transport engineering, remediation, environmental monitoring, HSE, quality assurance, project controls, and close‑out. A lifecycle perspective is applied from early concept through execution and final records, ensuring that decommissioning activities are planned and delivered with traceability and accountability. Technical chapters integrate calculation notes, worked examples, temporary works principles, material specifications, procurement controls, inspection and test plans, maintenance and reliability considerations, and commissioning/recommissioning interfaces for retained systems. Worked examples illustrate governing principles such as lifting load factors, submerged weight, bearing pressures, preservation intervals, and waste‑handling logistics. These examples are intentionally transparent to demonstrate engineering reasoning, while reinforcing that project‑specific validated data and approved deliverables must govern final execution. Execution methodology emphasizes procurement traceability, vendor‑document controls, fabrication readiness, logistics planning, offshore removal procedures, and progressive completions. Construction and removal workflows integrate mechanical, piping, electrical, instrumentation, telecom, marine, and safety disciplines with quality assurance and HSE safeguards. Reliability guidance addresses preventive maintenance preparation, spare‑parts philosophy, anomaly assessment, repair strategies, and lessons learned, embedding risk‑based planning into long‑term asset management. The handbook also defines a consistent visual and document‑control philosophy: chapter‑specific engineering visualizations, technical flow diagrams, field‑realistic equipment images, tables sized within A4 margins, standardized captions, visible page numbering, and internal hyperlinks from the Table of Contents. Each chapter begins on a new page and is formatted for professional print and digital use. Ultimately, the Offshore Decommissioning and Removal Handbook Version 1.0 equips project managers, engineers, inspectors, HSE personnel, commissioning specialists, and operators with a disciplined roadmap for reliable decommissioning execution, ensuring safety, compliance, environmental stewardship, and sustainable asset retirement.

Rp499.000
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Offshore

OFFSHORE READINESS AND HANDOVER

The Offshore Readiness and Handover Handbook Version 1.0 provides a complete end‑to‑end framework for managing readiness and handover across offshore projects. It establishes a structured methodology that spans design maturity, construction completion, mechanical completion, test evidence, material and equipment readiness, marine and lifting readiness, pre‑commissioning, commissioning, start‑up interface, dossier preparation, system acceptance, and reliability transition. Each chapter translates readiness principles into auditable criteria, release gates, responsibilities, records, and measurable indicators. Worked examples illustrate governing calculations such as readiness weighting, punch‑list aging, preservation intervals, test completion ratios, spare coverage, lifting utilization, and reliability metrics. These examples are intentionally transparent to demonstrate engineering reasoning, while reinforcing that project‑specific validated data and approved deliverables must govern final execution. Execution methodology emphasizes procurement traceability, vendor‑document controls, fabrication readiness, logistics planning, offshore installation procedures, and progressive completions. Construction workflows integrate mechanical, piping, electrical, instrumentation, telecom, marine, and safety disciplines with quality assurance and HSE safeguards. Commissioning interface chapters embed turnover documentation, inspection records, and reliability indicators, ensuring safe energization and sustainable performance. The handbook also provides inspection and test plan (ITP) examples, material specification controls, readiness checklists, commissioning forms, maintenance frequencies, and sector application matrices. Visual aids include technical tables, structured diagrams, and lifecycle schematics to support implementation and training. Reliability content addresses preventive maintenance preparation, spare‑parts philosophy, anomaly assessment, repair strategies, and lessons learned, embedding risk‑based planning into long‑term asset management. The intended audience includes project managers, commissioning teams, discipline engineers, QA/QC inspectors, HSE personnel, logistics coordinators, operations staff, maintenance teams, and document control specialists. By combining technical rigor with reproducible workflows and lifecycle governance, the Offshore Readiness and Handover Handbook Version 1.0 equips multidisciplinary teams with a disciplined roadmap for reliable offshore execution, ensuring auditable readiness, safe handover, and sustainable operational performance.

Rp499.000
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Offshore

OFFSHORE MECHANICAL COMPLETION AND SYSTEM HANDOVER

The Offshore Mechanical Completion and System Handover Handbook Version 1.0 provides a comprehensive technical framework for managing mechanical completion and system handover across offshore facilities. It establishes a structured methodology that spans design readiness, fabrication, transport, installation, construction close‑out, inspection, pre‑commissioning interface, and transfer to commissioning and operations. The handbook integrates completion philosophy, systemization, database control, and discipline‑specific requirements for static and rotating equipment, piping, valves, HVAC, lifting systems, fire protection, cleaning and flushing, preservation, inspection, vendor packages, offshore installation, hook‑up, handover, and close‑out assurance. Technical chapters combine engineering theory with practical execution, supported by calculation notes, material specifications, procurement controls, inspection and test plan (ITP) requirements, inspection forms, field‑release logic, maintenance frequencies, reliability actions, punch management, and sector applicability. Worked examples illustrate governing principles such as flange torque, valve leakage testing, vibration checks, and preservation intervals. These examples are intentionally transparent to demonstrate engineering reasoning, while reinforcing that project‑specific validated data and approved deliverables must govern final execution. Execution methodology emphasizes procurement traceability, vendor‑document controls, fabrication readiness, logistics planning, offshore installation procedures, and progressive completions. Construction workflows integrate mechanical, piping, electrical, instrumentation, and telecom disciplines with safety safeguards and quality assurance. Commissioning interface chapters embed turnover documentation, inspection records, and reliability indicators, ensuring safe energization and sustainable performance. The handbook also provides technical tables, checklists, three‑dimensional engineering diagrams, and equipment‑focused visual references to support implementation and training. Maintenance and reliability sections highlight preventive and condition‑based tasks, spare‑parts philosophy, and performance trending. The intended outcome is a consistent, auditable, and safe handover process in which system boundaries are clear, completion status is evidence‑based, residual risks are visible, documentation is complete, and commissioning receives a plant condition that is technically ready for the next phase. By combining technical rigor with reproducible workflows and lifecycle governance, the Offshore Mechanical Completion and System Handover Handbook Version 1.0 equips project teams with a disciplined roadmap for reliable offshore execution.

Rp499.000
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Offshore

OFFSHORE INSPECTIONS TESTING CERTIFICATIONS

The Offshore Inspections, Testing & Certifications Handbook Version 1.0 provides a complete framework for inspection, testing, and certification activities across the offshore asset lifecycle. It establishes a structured methodology that spans governance, statutory and classification certification, structural inspection, pressure systems, rotating equipment, electrical systems, instrumentation and safety systems, lifting appliances, marine vessels, subsea inspection, nondestructive testing (NDT), welding and traceability, corrosion and cathodic protection, load and performance testing, hazardous‑area equipment, environmental compliance, HSE and emergency systems, vendor inspection, reliability and risk‑based inspection (RBI), and digital integrity management. Technical chapters integrate engineering theory with practical execution, supported by technical tables, inspection checklists, material lists, maintenance frequencies, sample records, basic engineering equations, worked examples, and inspection flow diagrams. Worked examples illustrate governing principles such as pressure test calculations, sling load verification, weld acceptance criteria, cathodic protection sizing, and performance test logic. These examples are intentionally simplified to demonstrate engineering reasoning, while reinforcing that project‑specific validated data and approved deliverables must govern final execution. Execution methodology emphasizes procurement traceability, vendor‑document controls, fabrication readiness, logistics planning, offshore installation procedures, and progressive completions. Inspection and certification workflows integrate mechanical, piping, electrical, instrumentation, telecom, and marine disciplines with safety safeguards and quality assurance. Commissioning methodology embeds turnover documentation, inspection records, and reliability indicators, ensuring safe energization and sustainable performance. Quality and HSE content includes inspection registers, calibration records, hydrotest dossiers, preservation logs, commissioning forms, and master document register (MDR) closeout. Reliability guidance addresses preventive maintenance preparation, spare‑parts philosophy, condition‑based monitoring, anomaly assessment, repair strategies, and lessons learned. The handbook is intended for project managers, engineers, inspectors, HSE personnel, commissioning specialists, operators, and consultants. By combining technical rigor with reproducible workflows and lifecycle governance, the Offshore Inspections, Testing & Certifications Handbook Version 1.0 equips multidisciplinary teams with a disciplined roadmap for reliable offshore inspection execution, ensuring operational safety, compliance, efficiency, and long‑term sustainability.

Rp499.000
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Offshore

MARINE VESSEL AND OFFSHORE SUPPORT OPERATIONS

The Marine Vessel and Offshore Support Operations Handbook Version 1.0 provides a broad professional reference for the planning, execution, and lifecycle management of marine vessels and offshore support operations. It establishes a structured methodology that spans vessel fundamentals, classification and regulatory compliance, marine systems, navigation, dynamic positioning (DP), deck machinery, anchor handling, supply operations, logistics, lifting, subsea support, health, safety, and environment (HSE), metocean inputs, reliability, inspection, procurement, and commissioning. Technical chapters integrate engineering theory with practical offshore execution, supported by technical tables, material and equipment lists, checklists, inspection records, maintenance frequencies, calculation notes, worked examples, technical flow diagrams, lifecycle diagrams, and structured three‑dimensional illustrations. Worked examples illustrate governing principles such as bollard pull estimation, DP capability checks, lifting stability, anchor‑handling loads, and vessel motion response. These examples are intentionally simplified to demonstrate engineering reasoning, while reinforcing that project‑specific validated data and approved marine standards must govern final execution. Execution chapters emphasize procurement traceability, vendor‑document controls, fabrication readiness, logistics planning, offshore installation procedures, and progressive completions. Construction and marine operations methodology integrates vessel mobilization, heavy‑lift planning, cargo handling, safety safeguards, and quality assurance. Commissioning methodology embeds turnover documentation, inspection records, and reliability indicators, ensuring safe startup and sustainable performance. Maintenance and reliability sections highlight preventive and condition‑based tasks, vessel inspection routines, equipment certification, and performance trending. Emergency response chapters address contingency planning, incident drills, and marine safety assurance. Cost‑control guidance reinforces auditable decision‑making, logistics readiness, and operational efficiency. The handbook is intended for project managers, marine engineers, logistics coordinators, procurement specialists, construction teams, QA/QC inspectors, commissioning personnel, operators, and consultants. By combining technical rigor with reproducible workflows and lifecycle governance, the Marine Vessel and Offshore Support Operations Handbook Version 1.0 equips multidisciplinary teams with a disciplined roadmap for reliable offshore support execution, ensuring operational safety, efficiency, and long‑term sustainability.

Rp499.000
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Offshore

OFFSHORE COMMISSIONING START-UP

The Offshore Commissioning & Start‑Up Handbook Version 1.0 provides a complete practice‑oriented framework for the commissioning and start‑up of offshore production facilities, including fixed platforms, floating facilities, utility modules, and marine‑connected process systems. It integrates technical, organizational, safety, quality, completion, operations‑readiness, and documentation requirements from mechanical completion through stable operation and final acceptance. Twenty‑four technical chapters address lifecycle philosophy, organization and interfaces, systemization and digital completions, HSE and SIMOPS, mechanical completion, piping, static and rotating equipment, electrical systems, instrumentation and control, telecom, fire and gas, emergency shutdown (ESD) and safety instrumented systems (SIS), utilities and marine systems, hydrocarbon process systems, chemical cleaning and lubrication, dynamic commissioning, logistics and vendor support, pre‑startup safety review (PSSR), first hydrocarbon introduction, ramp‑up and performance testing, troubleshooting, handover, maintenance and reliability, industrial application, and lessons learned with digital close‑out. Each chapter contains practical procedures, technical flow diagrams, chapter‑specific visuals, 3D engineering schematics, calculation notes, worked examples, material and procurement controls, inspection and test plan (ITP) checkpoints, inspection forms, field‑release expectations, maintenance frequencies, and sector application matrices. Appendices provide reusable completion status codes, ITP templates, commissioning forms, inspection records, procurement controls, calculation examples, maintenance procedures, references, and a glossary. Execution methodology emphasizes scope definition, workpack planning, material traceability, permit‑to‑work systems, punch‑list control, progressive completions, and commissioning readiness. Quality and HSE content reinforces inspection registers, calibration records, hydrotest dossiers, preservation logs, commissioning forms, and master document register (MDR) closeout. Reliability guidance addresses preventive maintenance preparation, spare‑parts philosophy, condition‑based monitoring, and lessons learned. The handbook is intended for project managers, engineers, construction teams, QA/QC inspectors, HSE personnel, commissioning specialists, operators, and consultants. By combining technical rigor with reproducible workflows and lifecycle governance, the Offshore Commissioning & Start‑Up Handbook Version 1.0 equips multidisciplinary teams with a disciplined roadmap for reliable offshore commissioning execution, ensuring safe start‑up, predictable schedules, quality assurance, and readiness for long‑term operation.

Rp499.000
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Offshore

OFFSHORE PRE-COMMISSIONING

The Offshore Pre‑Commissioning Handbook Version 1.0 provides a complete technical and execution framework for preparing offshore facilities prior to operational handover. It establishes a structured methodology that spans engineering definition, mechanical completion, pre‑commissioning, commissioning interface, and readiness for live operation. Coverage includes piping systems, mechanical equipment, electrical and instrumentation, telecom, rotating machinery, static equipment, subsea tie‑ins, marine logistics, heavy lifting, preservation, hydrotesting, flushing, cleaning, drying, leak testing, energization, loop checking, calibration, functional testing, and turnover documentation. Technical chapters integrate engineering theory with practical construction control. Calculation notes and worked examples illustrate governing principles such as hydrotest pressure, leak‑rate estimation, flushing velocity, drying dew point, cable voltage drop, earned‑value productivity, and reliability indices. These examples are intentionally transparent to demonstrate engineering reasoning, while reinforcing that project‑specific validated data and approved deliverables must govern final execution. Execution methodology emphasizes scope definition, workpack planning, material traceability, inspection and test plan (ITP) checkpoints, punch‑list control, permit‑to‑work systems, simultaneous operations (SIMOPS), and progressive completions. Construction and pre‑commissioning workflows integrate mechanical, piping, electrical, instrumentation, and telecom disciplines with safety safeguards and quality assurance. Commissioning interface chapters embed turnover documentation, inspection records, and reliability indicators, ensuring safe energization and sustainable performance. Quality and HSE content includes inspection registers, calibration records, hydrotest dossiers, preservation logs, commissioning forms, and master document register (MDR) closeout. Reliability guidance addresses preventive maintenance preparation, spare‑parts philosophy, condition‑based monitoring, and lessons learned. The handbook also provides reusable templates such as technical checklists, registers, sample forms, maintenance matrices, and sector application references. Applications extend across offshore oil and gas, FPSO/FLNG, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, and marine infrastructure projects. Ultimately, the Offshore Pre‑Commissioning Handbook Version 1.0 equips project managers, engineers, construction teams, QA/QC inspectors, HSE personnel, commissioning specialists, and operators with a disciplined roadmap for reliable offshore pre‑commissioning execution. By combining technical rigor with reproducible workflows and lifecycle governance, it ensures projects achieve safety, predictability, quality, and readiness for operation.

Rp499.000
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Offshore

OFFSHORE INSTRUMENT HOOK-UP MANAGEMENT

The Offshore Hook‑Up Management Handbook Version 1.0 provides an integrated technical and management framework for executing offshore hook‑up activities from engineering definition through mechanical completion, pre‑commissioning, commissioning, and final handover. It establishes a structured methodology that addresses the principal execution interfaces among engineering, fabrication, logistics, marine operations, structural works, piping and mechanical systems, electrical, instrumentation and telecom, HSE, quality, completion management, and operations readiness. Technical chapters develop practical methods for scope definition, workpack planning, schedule and productivity control, material traceability, heavy lifting, flange and bolting management, hydrotesting, cable installation, loop checking, permit‑to‑work systems, simultaneous operations (SIMOPS), inspection and test planning, punch‑list control, completion certification, maintenance preparation, and reliability handover. Calculation notes and worked examples illustrate core engineering and management principles such as lifting load factors, sling tensions, productivity indices, voltage drop, earned‑value analysis, risk ranking, completion indices, and reliability metrics. These examples are intentionally transparent to demonstrate engineering reasoning, while reinforcing that project‑specific validated data and approved deliverables must govern final execution. Execution chapters emphasize procurement traceability, vendor‑document controls, fabrication readiness, logistics planning, offshore installation procedures, and progressive completions. Construction methodology integrates mechanical, piping, electrical, instrumentation, and telecom installation with safety safeguards and quality assurance. Commissioning methodology embeds turnover documentation, inspection records, and reliability indicators, ensuring safe energization and sustainable performance. The handbook also provides technical checklists, registers, sample forms, and sector application matrices to support consistent field implementation. Applications extend across offshore oil and gas, FPSO/FLNG, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, and marine infrastructure projects. Ultimately, the Offshore Hook‑Up Management Handbook Version 1.0 equips project managers, engineers, construction teams, QA/QC inspectors, HSE personnel, commissioning specialists, and operators with a disciplined roadmap for reliable offshore hook‑up execution. By combining technical rigor with reproducible workflows and lifecycle governance, it ensures projects achieve safety, predictability, quality, and readiness for operation.

Rp499.000
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Offshore

SUBSEA CABLE INSTALLATION

The Subsea Cable Installation Handbook Version 1.0 provides a complete lifecycle framework for the engineering, procurement, installation, commissioning, and long‑term management of subsea cable systems. It establishes a structured methodology that spans cable construction, electrical and mechanical design interfaces, route engineering, marine survey, burial assessment, procurement, factory qualification, transportation, loadout, vessel spreads, route clearance, shore‑end landing, surface lay, simultaneous and post‑lay burial, crossings, external protection, jointing and repair, remotely operated vehicle (ROV) monitoring, testing, commissioning, integrity management, and decommissioning. Technical chapters integrate engineering theory with practical offshore execution. Calculation notes and worked examples illustrate governing principles such as submerged weight, cable tension, bend‑radius control, dynamic amplification, burial resistance, and jointing forces. Material specification tables, procurement controls, inspection and test plan (ITP) logic, field‑release records, commissioning forms, maintenance frequencies, and sector application matrices are embedded throughout. Unique three‑dimensional schematics and field‑style visualizations accompany each chapter, bridging design documentation with site execution. Execution chapters emphasize procurement traceability, vendor‑document controls, fabrication readiness, logistics planning, offshore installation procedures, and progressive completions. Construction methodology integrates vessel mobilization, cable‑laying spreads, burial equipment, crossings, safety safeguards, and quality assurance. Commissioning methodology embeds turnover documentation, inspection records, and reliability indicators, ensuring safe energization and sustainable performance. Maintenance and reliability sections highlight preventive and condition‑based tasks, inspection routines, anomaly detection, repair strategies, and performance trending. Integrity management guidance addresses baseline surveys, monitoring intervals, and lessons learned, reinforcing lifecycle resilience. The handbook is intended for project managers, subsea engineers, marine operations specialists, logistics coordinators, construction teams, QA/QC inspectors, commissioning personnel, operators, and consultants. By combining technical rigor with reproducible workflows and lifecycle governance, the Subsea Cable Installation Handbook Version 1.0 equips multidisciplinary teams with a disciplined roadmap for reliable subsea cable execution, ensuring operational safety, efficiency, and long‑term sustainability.

Rp499.000
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Offshore

SUBSEA PIPELINE AND FLOWLINE INSTALLATION

The Subsea Pipeline and Flowline Installation Handbook Version 1.0 provides a comprehensive engineering and execution framework for the planning, fabrication, installation, testing, commissioning, and lifecycle management of subsea pipelines and flowlines. It establishes a structured methodology that spans rigid and flexible systems, conventional and deepwater lay methods, route and seabed preparation, structures and tie‑ins, crossing and protection works, remotely operated vehicle (ROV) and survey control, installation analysis, quality assurance, marine safety, and long‑term integrity management. Technical chapters connect design inputs directly to offshore execution, ensuring traceability from engineering assumptions to field deliverables. Simplified calculation notes and worked examples illustrate governing principles such as submerged weight, installation tension, curvature limits, pull force, anode mass, survey uncertainty, bearing pressure, reeling strain, and position uncertainty. These examples are intentionally transparent to demonstrate engineering reasoning, while reinforcing that project‑specific validated data and approved design documents must govern final execution. Execution chapters emphasize procurement traceability, vendor‑document controls, fabrication readiness, logistics planning, offshore installation procedures, and progressive completions. Construction methodology integrates welding, coating, alignment, seafastening, safety safeguards, and quality assurance. Commissioning methodology embeds hydrotest records, turnover documentation, inspection forms, and reliability indicators, ensuring safe startup and sustainable performance. Quality content includes material traceability, ITP hold and witness points, field‑release logic, nondestructive testing (NDT), coating inspection, calibration, hydrotest records, commissioning forms, and master document register (MDR) closeout. Reliability content addresses inspection frequency, baseline surveys, anomaly assessment, repair strategies, and lessons learned, embedding risk‑based planning into long‑term asset management. An application matrix demonstrates adaptability across oil and gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, and marine infrastructure projects. Ultimately, the Subsea Pipeline and Flowline Installation Handbook Version 1.0 equips project managers, subsea engineers, marine operations specialists, construction teams, QA/QC inspectors, commissioning personnel, and operators with a disciplined roadmap for reliable subsea execution, ensuring operational safety, efficiency, and long‑term sustainability.

Rp499.000
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Offshore

SUBSEA EQUIPMENT INSTALLATION

The Subsea Equipment Installation Handbook Version 1.0 provides an integrated methodology for the planning, execution, and lifecycle management of subsea equipment installation. It establishes a structured framework that spans subsea trees, wellheads, manifolds, templates, pipeline end terminations (PLETs), pipeline end manifolds (PLEMs), flowlines, flexible pipes, risers, jumpers, spools, umbilicals, power cables, control systems, foundations, protection structures, and intervention tooling. Technical chapters combine engineering theory with practical construction control, covering vessel and crane selection, dynamic positioning (DP), active heave compensation, rigging design, submerged weight calculations, hydrodynamic loading, bend‑radius control, metrology, connector installation, remotely operated vehicle (ROV) tooling, survey requirements, seabed preparation, testing, quality assurance, handover, integrity management, and reliability. Worked examples illustrate governing principles such as sling tension, hydrodynamic force estimation, bend‑radius checks, and connector alignment tolerances. These examples are intentionally simplified to demonstrate engineering reasoning, while reinforcing that project‑specific validated data and approved calculations must govern final execution. Execution chapters emphasize procurement traceability, vendor‑document controls, fabrication readiness, logistics planning, offshore installation procedures, and progressive completions. Construction methodology integrates heavy lifting, marine transportation, rigging, alignment, safety safeguards, and quality assurance. Commissioning methodology embeds turnover documentation, inspection records, and reliability indicators, ensuring safe startup and sustainable performance. The handbook also provides inspection and test plan (ITP) examples, material specification controls, offshore readiness checklists, commissioning forms, maintenance frequencies, and sector application matrices. Appendices include reusable templates for inspection tables, calculation sheets, and maintenance records, supporting adaptation to project‑specific requirements. The intended audience includes project managers, subsea engineers, marine operations specialists, logistics coordinators, construction managers, QA/QC inspectors, HSE personnel, commissioning teams, and contractors. By combining technical rigor with reproducible workflows and lifecycle governance, the Subsea Equipment Installation Handbook Version 1.0 equips multidisciplinary teams with a disciplined roadmap for reliable subsea execution, ensuring operational safety, efficiency, and long‑term sustainability.

Rp499.000
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Offshore

OFFSHORE EIT INSTALLATION

The Offshore Electrical, Instrumentation & Telecom (EIT) Installation Handbook Version 1.0 provides a complete engineering and execution framework for the installation and lifecycle management of offshore electrical, instrumentation, and telecom systems. It establishes a structured methodology that spans cable containment and pulling, HV/MV and LV equipment, transformers and generators, UPS/DC systems, grounding and electromagnetic compatibility (EMC), lighting and heat tracing, field instruments, tubing and hook‑ups, control valves, junction boxes, system interfaces, fire and gas detection, analyzer systems, calibration, telecom equipment rooms, PA/GA systems, radio, CCTV, LAN/WAN, fiber optics, marine navigation systems, system completion, handover, and reliability. Technical chapters combine engineering theory with practical construction control, supported by technical tables, material lists, inspection and test plan (ITP) checkpoints, calculation notes, worked examples, commissioning guidance, maintenance frequencies, sector application matrices, and unique engineering visualizations for each chapter. Worked examples illustrate governing principles such as cable pulling tension, voltage drop, transformer sizing, grounding conductor capacity, and calibration logic. These examples are intentionally simplified to demonstrate engineering reasoning, while reinforcing that project‑specific validated data and approved design documents must govern final execution. Execution chapters emphasize procurement traceability, vendor‑document controls, fabrication readiness, logistics planning, offshore installation procedures, and progressive completions. Construction methodology integrates electrical installation, instrument hook‑ups, telecom system integration, safety safeguards, and quality assurance. Commissioning methodology embeds turnover documentation, inspection records, and reliability indicators, ensuring safe energization and sustainable performance. Maintenance and reliability sections highlight preventive and condition‑based tasks, inspection routines, spare‑parts philosophy, and performance trending. Guidance for SIMOPS and constrained workfront execution ensures safe integration of greenfield and brownfield projects. The handbook is intended for project managers, electrical engineers, instrumentation specialists, telecom engineers, procurement teams, construction crews, QA/QC inspectors, commissioning personnel, operators, and consultants. By combining technical rigor with reproducible workflows and lifecycle governance, the Offshore EIT Installation Handbook Version 1.0 equips multidisciplinary teams with a disciplined roadmap for reliable offshore execution, ensuring operational safety, efficiency, and long‑term sustainability.

Rp499.000
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Offshore

OFFSHORE PIPING MECHANICAL INSTALLATION

The Offshore Piping and Mechanical Installation Handbook Version 1.0 provides a comprehensive engineering and execution framework for piping and mechanical installation across fixed platforms, floating facilities, marine terminals, modular topsides, and related industrial facilities. It establishes a structured methodology that integrates design readiness, work packaging, materials and traceability, spool fabrication, supports, valves, static and rotating equipment, skids, offshore lifting, logistics, pipe erection, welding, non‑destructive examination (NDE), post‑weld heat treatment (PWHT), flange management, testing, cleaning, corrosion‑protection interfaces, mechanical completion, commissioning, QA/QC, HSE, maintenance, and digital turnover. Technical chapters combine calculation notes, worked examples, material and procurement controls, inspection and test plan (ITP) logic, field‑release records, commissioning forms, maintenance frequencies, reliability concepts, and sector application matrices. Worked examples illustrate governing principles such as pipe stress distribution, flange bolt tension, welding heat input, lifting loads, and hydrotest pressure calculations. These examples are intentionally simplified to demonstrate engineering reasoning, while reinforcing that project‑specific validated data and approved design documents must govern final execution. Execution chapters emphasize procurement traceability, vendor‑document controls, fabrication readiness, logistics planning, offshore installation procedures, and progressive completions. Construction methodology integrates spool management, pipe supports, valve installation, equipment alignment, welding, inspection, and mechanical completion. Commissioning methodology embeds turnover documentation, inspection records, and reliability indicators, ensuring safe startup and sustainable performance. Maintenance and reliability sections highlight preventive and condition‑based tasks, inspection routines, spare‑parts philosophy, and performance trending. Digital turnover guidance addresses structured data handover, systemization, and integration with asset‑management platforms. The handbook is intended for project managers, piping engineers, mechanical engineers, procurement specialists, construction teams, QA/QC inspectors, commissioning personnel, operators, and consultants. By combining technical rigor with reproducible workflows and lifecycle governance, the Offshore Piping and Mechanical Installation Handbook Version 1.0 equips multidisciplinary teams with a disciplined roadmap for reliable offshore execution, ensuring operational safety, efficiency, and long‑term sustainability.

Rp499.000
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Offshore

OFFSHORE HEAVY LIFTING AND RIGGING

The Offshore Heavy Lifting and Rigging Handbook Version 1.0 provides a comprehensive technical and execution framework for planning, engineering, and delivering offshore lifting operations. It establishes a structured methodology that spans lift categorization, weight and center‑of‑gravity control, sling‑force calculations, crane capacity assessment, padeye and spreader design, dynamic amplification, vessel motion, environmental criteria, barge stability, loadout, seafastening, subsea lowering, dual‑crane operations, upending, inspection, certification, commissioning, and reliability management. Technical chapters combine governing equations, calculation notes, worked examples, technical tables, material lists, inspection and test plan (ITP) samples, field‑release records, commissioning forms, and maintenance frequencies. Worked examples illustrate core engineering principles such as sling tension, angle factors, dynamic load amplification, crane utilization, center‑of‑gravity load distribution, padeye bearing stress, and simplified stability checks. These examples are intentionally transparent to support engineering judgment, while reinforcing that project‑specific validated data and approved calculations must govern final execution. Execution chapters emphasize procurement traceability, vendor‑document controls, fabrication readiness, logistics planning, offshore installation procedures, and progressive completions. Construction methodology integrates heavy lifting, rigging hardware selection, seafastening, alignment, safety safeguards, and quality assurance. Commissioning methodology embeds turnover documentation, inspection records, and reliability indicators, ensuring safe startup and sustainable performance. Maintenance and reliability sections highlight preventive and condition‑based tasks, equipment certification, inspection routines, and performance trending. Certification and assurance processes reinforce compliance with international standards, while incident learning and risk‑based planning strengthen operational resilience. Applications are discussed across oil and gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine projects. Appendices provide reusable templates for inspection tables, checklists, material registers, commissioning forms, and sector application matrices. Ultimately, the Offshore Heavy Lifting and Rigging Handbook Version 1.0 equips project managers, logistics engineers, lifting specialists, construction teams, QA/QC inspectors, HSE personnel, commissioning engineers, and operators with a disciplined roadmap for reliable offshore lifting execution, ensuring operational safety, efficiency, and long‑term sustainability.

Rp499.000
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Offshore

OFFSHORE TRANSPORTATION AND INSTALLATION

The Offshore Transportation and Installation Handbook provides a comprehensive framework for the planning, execution, and lifecycle management of offshore transportation and installation activities. It establishes a structured methodology that spans vendor release, route surveys, heavy haulage, self‑propelled modular transporters (SPMT), crane engineering, rigging, seafastening, barge and vessel transportation, loadout, offshore installation, equipment‑specific logistics, preservation, QA/QC, HSE, commissioning interface, and sector applications. Technical chapters combine practical calculation notes, worked examples, material specifications, inspection and test plan (ITP) concepts, field‑release logic, commissioning forms, maintenance frequencies, and sector application matrices. Worked examples illustrate governing principles such as center‑of‑gravity reactions, axle and ground bearing loads, sling tension, crane utilization, dynamic amplification, seafastening forces, cable‑pulling tension, and preservation intervals. These examples are intentionally simplified to demonstrate engineering logic, while reinforcing that project‑specific validated data and approved calculations must govern final execution. Execution chapters emphasize procurement traceability, vendor‑document controls, fabrication readiness, logistics planning, offshore installation procedures, and progressive completions. Construction methodology integrates heavy lifting, marine transportation, seafastening, alignment, safety safeguards, and quality assurance. Commissioning methodology embeds turnover documentation, inspection records, and reliability indicators, ensuring safe startup and sustainable performance. Maintenance and reliability sections highlight preventive and condition‑based tasks, equipment certification, inspection routines, and performance trending. Preservation guidance addresses storage intervals, environmental protection, and readiness checks. HSE chapters reinforce safe lifting, marine operations, confined‑space entry, hazardous‑cargo handling, and emergency response. The handbook is intended for project managers, logistics engineers, transportation specialists, lifting engineers, construction managers, field engineers, QA/QC inspectors, HSE personnel, procurement teams, commissioning teams, and contractors working across onshore, offshore, marine, and infrastructure projects. By combining technical rigor with reproducible workflows and lifecycle governance, the Offshore Transportation and Installation Handbook Version 1.0 equips multidisciplinary teams with a disciplined roadmap for reliable offshore execution, ensuring operational safety, efficiency, and long‑term sustainability.

Rp499.000
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Offshore

OFFSHORE LOGISTICS AND MARINE OPERATIONS

The Offshore Logistics and Marine Operations Handbook Version 1.0 provides a comprehensive technical and execution framework for planning, selecting, verifying, and delivering offshore logistics and marine operations. It establishes a structured methodology that integrates vessel selection, platform supply vessel (PSV) and anchor‑handling tug supply (AHTS) operations, towage, heavy lifting, cargo securing, bulk transfer, personnel logistics, helicopter operations, shore‑base management, marine assurance, metocean inputs, navigation, dynamic positioning (DP), simultaneous operations (SIMOPS), mooring, bunkering, hazardous cargo handling, emergency response, inspection, commissioning, cost control, and industrial applications. Technical chapters combine calculation notes, worked examples, material specifications, inspection and test plan (ITP) concepts, commissioning forms, maintenance frequencies, and sector application matrices. Worked examples illustrate governing principles such as towline tension, lifting stability, DP capability, and cargo‑securing loads, while reinforcing that project‑specific validated data and approved marine standards must govern final execution. Execution chapters emphasize procurement traceability, vendor‑document controls, fabrication readiness, logistics planning, offshore installation procedures, and progressive completions. Construction and marine operations methodology integrates vessel mobilization, heavy‑lift planning, cargo handling, safety safeguards, and quality assurance. Commissioning methodology embeds turnover documentation, inspection records, and reliability indicators, ensuring safe startup and sustainable performance. Maintenance and reliability sections highlight preventive and condition‑based tasks, vessel inspection routines, equipment certification, and performance trending. Emergency response chapters address contingency planning, incident drills, and marine safety assurance. Cost‑control guidance reinforces auditable decision‑making, logistics readiness, and operational efficiency. The handbook is intended for project managers, marine engineers, logistics coordinators, procurement specialists, construction teams, QA/QC inspectors, commissioning personnel, operators, and consultants. By combining technical rigor with reproducible workflows and lifecycle governance, the Offshore Logistics and Marine Operations Handbook Version 1.0 equips multidisciplinary teams with a disciplined roadmap for reliable offshore logistics execution, ensuring operational safety, efficiency, and long‑term sustainability.

Rp499.000
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Offshore

OFFSHORE QUALITY MANAGEMENT QA QC

The Offshore Quality Management QA/QC Handbook Version 1.0 consolidates offshore quality‑assurance and quality‑control principles into a practical, execution‑oriented reference. It establishes a structured methodology that integrates governance, quality planning, assurance, inspection, verification, documentation, lifecycle material and equipment control, fabrication, marine transportation, offshore installation, hook‑up, pre‑commissioning, commissioning, and final handover. Technical chapters emphasize design‑to‑execution traceability, ensuring that every requirement is linked to a documented input, verified material, controlled fabrication record, and accepted commissioning result. Worked examples, calculation notes, technical tables, material specifications, and inspection forms illustrate how quality assumptions are translated into deliverables and acceptance criteria. Inspection and test plans (ITPs) identify hold, witness, review, and surveillance points, while field‑release records and commissioning forms provide auditable evidence of compliance. Execution guidance covers procurement controls, vendor surveillance, fabrication readiness, logistics planning, offshore installation procedures, and progressive completions. Construction methodology integrates welding, coating, alignment, lifting, and mechanical completion, reinforced by QA/QC checkpoints and non‑conformance management. Commissioning chapters embed turnover documentation, inspection records, and reliability indicators, ensuring safe energization and sustainable performance. The handbook highlights the importance of lifecycle quality management: material traceability, equipment certification, inspection evidence, and controlled documentation are treated as cross‑disciplinary requirements. Maintenance and reliability sections embed preventive and condition‑based tasks, spare‑parts philosophy, and performance trending, ensuring long‑term operational integrity. Appendices provide reusable templates for inspection requests, material reports, non‑conformance records, punch lists, test packages, and handover dossiers. Sector application matrices extend the methods to oil and gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine projects. Ultimately, the Offshore Quality Management QA/QC Handbook Version 1.0 equips project managers, engineers, procurement specialists, inspectors, construction teams, commissioning personnel, and operators with a disciplined roadmap for reliable offshore project execution. By combining technical rigor, reproducible workflows, and lifecycle governance, it ensures projects achieve operational safety, efficiency, and long‑term sustainability.

Rp499.000
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Offshore

OFFSHORE HSE SAFETY MANAGEMENT

The Offshore HSE Safety Management Handbook Version 1.0 provides a comprehensive framework for health, safety, and environmental (HSE) governance across offshore projects. It establishes a structured methodology that spans major accident hazard control, permit‑to‑work systems, process safety, fire and explosion protection, emergency response, marine and aviation safety, lifting operations, work at height, confined space entry, electrical and mechanical integrity, hazardous materials management, occupational health, environmental protection, construction safety, commissioning, simultaneous operations (SIMOPS), contractor control, incident learning, assurance, reliability, and decommissioning. The handbook applies a barrier‑management model in which hazards are identified, preventive and mitigative controls are defined, performance standards are established, safety‑critical elements are maintained, impairments are controlled, and assurance data are fed back into management review. This approach provides a consistent bridge between design safety studies, field execution, maintenance systems, and operational decision‑making. Technical chapters combine theory with calculation notes, worked examples, material specifications, inspection and test plans (ITPs), field‑release records, commissioning forms, maintenance frequencies, and sector application matrices. Practical examples illustrate how safety assumptions—such as ignition energy thresholds, lifting limits, or confined‑space ventilation requirements—are translated into deliverables, acceptance criteria, and lifecycle documentation. Execution chapters emphasize procurement traceability, vendor‑document controls, fabrication readiness, transport logistics, offshore installation planning, and progressive completions. Commissioning methodology integrates pre‑functional checks, energization, integrated systems testing, and turnover documentation. Maintenance and reliability sections embed preventive and condition‑based tasks, spare‑parts philosophy, and performance trending, ensuring safe startup and sustainable operations. The handbook is intended for project managers, HSE specialists, engineers, construction teams, QA/QC inspectors, commissioning personnel, operators, contractors, and consultants. By combining technical rigor with reproducible workflows and lifecycle governance, the Offshore HSE Safety Management Handbook Version 1.0 equips multidisciplinary teams with a disciplined roadmap for reliable offshore safety execution, ensuring operational compliance, efficiency, and long‑term sustainability.

Rp499.000
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Offshore

OFFSHORE PROJECT MANAGEMENT

The Offshore Project Management Handbook Version 1.0 presents a complete end‑to‑end framework for the governance, engineering, procurement, construction, commissioning, and close‑out of offshore projects. Organized into 28 technical chapters and four structured appendices, it provides multidisciplinary guidance that connects project strategy with execution discipline. Coverage spans governance, front‑end engineering design (FEED), health, safety, and environment (HSE), metocean inputs, fixed and floating facilities, subsea systems, pipelines, process systems, mechanical equipment, electrical distribution, instrumentation, fire and gas systems, marine logistics, procurement, fabrication, quality assurance, transportation, heavy lifting, commissioning, simultaneous operations (SIMOPS), project controls, cost management, risk management, interface coordination, digital engineering, and project close‑out. Each chapter integrates lifecycle controls from design through commissioning, supported by 3D engineering schematics, field‑reference visuals, design and material requirements, technical tables, inspection and test checkpoints, calculation notes with worked examples, checklists, commissioning forms, and maintenance considerations. Cross‑sector application guidance ensures adaptability to oil and gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine projects. Execution chapters emphasize procurement traceability, vendor‑document controls, fabrication readiness, transport logistics, offshore installation planning, and progressive completions. Commissioning methodology embeds turnover documentation, inspection records, and reliability indicators, ensuring safe startup and sustainable performance. Risk and project‑control sections highlight auditable governance, cost discipline, and schedule assurance. The appendices provide reusable forms, calculation sheets, sector application matrices, and reference standards. Print‑ready formatting includes controlled page geometry, readable captions, chapter‑level pagination, and internal hyperlink navigation, making the handbook suitable for both digital and hardcopy use. Ultimately, the Offshore Project Management Handbook Version 1.0 equips project managers, engineers, procurement specialists, construction teams, QA/QC inspectors, commissioning personnel, operators, and consultants with a disciplined roadmap for reliable offshore project execution. By combining technical rigor, reproducible workflows, and lifecycle governance, it ensures projects achieve operational safety, efficiency, and long‑term sustainability.

Rp499.000
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OFFSHORE JACKET TOPSIDE

The Offshore Jacket & Topside EPC Handbook provides an integrated technical and execution framework for fixed offshore jacket substructures and topside facilities. It establishes a structured methodology that spans structural configuration, metocean and geotechnical inputs, environmental and accidental loading, global and local structural analysis, fatigue assessment, pile foundations, materials engineering, welding, coating, fabrication, modularization, loadout, transportation, heavy lifting, floatover operations, offshore installation, commissioning, QA/QC, cathodic protection, integrity management, maintenance, and decommissioning. Technical chapters combine theory with governing equations, design inputs, calculation notes, simplified worked examples, material and procurement controls, fabrication and construction considerations, inspection and test plan (ITP) requirements, commissioning forms, maintenance frequencies, and sector application matrices. Each section is designed to support engineering judgment rather than replace it, ensuring that project teams can adapt the guidance to site‑specific conditions and approved project standards. Execution chapters emphasize procurement traceability, vendor‑document controls, fabrication readiness, transport logistics, offshore installation planning, and progressive completions. Construction methodology integrates pile driving, jacket launching, topside lifting, welding, alignment, safety safeguards, and quality assurance. Commissioning methodology embeds turnover documentation, inspection records, and reliability indicators, ensuring safe transition into live operation. Maintenance and integrity chapters highlight preventive and condition‑based tasks, defect management, and risk‑based planning. Cathodic protection, coating systems, and fatigue monitoring are treated as cross‑disciplinary requirements to sustain long‑term structural reliability. Decommissioning methodology covers removal planning, marine logistics, safety management, and regulatory compliance. The handbook is intended for structural engineers, offshore designers, project managers, procurement specialists, construction teams, QA/QC inspectors, commissioning personnel, operators, and consultants. Applicable across oil and gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine sectors, it delivers a professional, auditable, and field‑ready reference. Ultimately, the Offshore Jacket & Topside EPC Handbook Version 1.0 equips multidisciplinary teams with a disciplined roadmap for reliable offshore structural execution, ensuring operational safety, efficiency, and long‑term sustainability.

Rp499.000
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OFFSHORE STRUCTURAL

The Offshore Structural EPC Handbook provides a comprehensive engineering and execution framework for fixed and related offshore structural systems. It establishes a structured methodology that integrates design, fabrication, installation, inspection, maintenance, and decommissioning into one lifecycle reference. Coverage spans fixed steel jackets, topside support framing, tubular members and joints, pile foundations, marine transportation, heavy lifting, installation procedures, structural integrity management, repair strategies, and end‑of‑life decommissioning. Technical chapters combine structural mechanics, hydrodynamic loading, fatigue analysis, materials engineering, welding practices, quality assurance, inspection requirements, and lifecycle reliability. Each chapter is organized to include governing theory, design inputs, calculation notes, simplified worked examples, material and procurement controls, fabrication and construction considerations, inspection and ITP requirements, and maintenance guidance. To support both office engineering and field execution, each section is supplemented with a distinct field photograph, a dedicated 3D engineering schematic, and a technical process‑flow diagram. Execution chapters emphasize procurement traceability, vendor‑document controls, fabrication readiness, transport logistics, offshore installation planning, and progressive completions. Construction methodology integrates pile driving, jacket launching, topside lifting, welding, alignment, safety safeguards, and quality assurance. Commissioning and operations readiness sections embed turnover documentation, inspection records, and reliability indicators, ensuring safe transition into live operation. Maintenance and integrity chapters highlight preventive and condition‑based tasks, defect management, and risk‑based planning. Repair and retrofit guidance addresses fatigue cracking, corrosion protection, and structural strengthening. Decommissioning methodology covers removal planning, marine logistics, safety management, and regulatory compliance. The handbook is intended for structural engineers, offshore designers, project managers, procurement specialists, construction teams, QA/QC inspectors, commissioning personnel, operators, and consultants. By combining technical rigor with reproducible workflows and lifecycle governance, the Offshore Structural EPC Handbook Version 1.0 equips multidisciplinary teams with a disciplined roadmap for reliable offshore structural execution, ensuring operational safety, efficiency, and long‑term sustainability.

Rp499.000
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Proposal

WASTEWATER PLANT

The Wastewater Treatment Plant EPC Handbook Version 1.0 provides an integrated engineering and project‑execution framework for the design, construction, commissioning, and lifecycle management of industrial wastewater treatment facilities. It establishes a structured methodology that spans influent characterization, preliminary treatment, equalization and pumping, primary treatment, activated sludge, biological nutrient removal, attached‑growth systems, membrane bioreactors, clarification, tertiary filtration, disinfection, sludge thickening, digestion, dewatering, odor control, chemical systems, mechanical and piping systems, electrical and automation systems, civil and structural works, commissioning, operations, and reliability. Technical chapters combine fundamental equations, calculation notes, worked examples, design‑criteria tables, material specifications, equipment data requirements, procurement controls, fabrication and delivery considerations, installation and heavy‑lift planning, inspection and test plan (ITP) checkpoints, inspection records, field‑release concepts, commissioning forms, maintenance frequencies, troubleshooting guidance, and sector‑specific application matrices. Worked examples illustrate hydraulic capacity, RO recovery, sludge digestion kinetics, pump sizing, and effluent quality compliance, while reinforcing that project‑specific validated data must govern final design. Execution chapters emphasize procurement traceability, vendor‑document controls, fabrication, delivery, installation, inspection, and progressive completions. Construction methodology integrates civil works, piping, electrical installation, automation, safety safeguards, and quality assurance. Commissioning methodology embeds turnover documentation, inspection records, and reliability indicators, ensuring safe startup and sustainable performance. Unique 3D engineering schematics and field‑style visualizations are provided to support technical understanding and interface management. Appendices include reusable templates for calculations, material specifications, procurement controls, inspection and commissioning forms, maintenance matrices, and sector application references. The handbook is written for EPC engineers, owners, consultants, construction teams, commissioning personnel, operators, maintenance specialists, and technical trainees who require a common reference connecting process design with the realities of procurement, construction, and operation. A principal theme is lifecycle performance: treatment compliance is sustained only when hydraulic capacity, process resilience, maintainability, safe access, instrumentation, spares, operating procedures, training, and reliability engineering are designed into the plant from the beginning.

Rp499.000
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Proposal

WATER DEMIN PLANT

The Water Demineralization Plant Handbook Version 1.0 provides a practical engineering framework for the design, construction, commissioning, and lifecycle management of industrial water demineralization facilities. It establishes a structured methodology that integrates source‑water characterization, pretreatment, softening, reverse osmosis (RO), ion exchange, electrodeionization (EDI), mixed‑bed polishing, storage, and distribution systems. Technical chapters combine design criteria, calculation notes, worked examples, parameter ranges, material compatibility guidance, inspection and test requirements, field‑release records, maintenance frequencies, and industrial application matrices. Calculation examples illustrate ionic equivalents, hardness removal, RO recovery and rejection, pump power sizing, ion‑exchange run length, and storage capacity determination. These worked examples are intentionally simplified to make engineering methods visible, while reinforcing that project‑specific validated water analyses, vendor software, and approved standards must govern final design. Execution chapters emphasize procurement traceability, vendor‑document controls, fabrication, delivery, installation, inspection, and progressive completions. Construction methodology integrates civil works, piping, electrical installation, automation, safety safeguards, and quality assurance. Commissioning methodology embeds turnover documentation, inspection records, and reliability indicators, ensuring safe startup and sustainable performance. The handbook highlights traceability of assumptions, protection of downstream equipment, objective acceptance criteria, safe chemical handling, water‑quality monitoring, and lifecycle documentation. Maintenance and reliability sections embed preventive and condition‑based tasks, spare‑parts philosophy, and performance trending, ensuring long‑term operational integrity. Appendices provide reusable templates for calculations, material specifications, procurement controls, inspection and commissioning forms, maintenance matrices, and sector application references. Application coverage extends to oil and gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine projects. Ultimately, the Water Demineralization Plant Handbook Version 1.0 equips engineers, designers, project managers, procurement specialists, inspectors, construction teams, commissioning personnel, and operators with a disciplined roadmap for reliable water‑demin plant execution. By combining technical rigor, reproducible workflows, and lifecycle governance, it ensures projects achieve operational safety, efficiency, and long‑term sustainability.

Rp499.000
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Proposal

NUCLEAR POWER PLANT EPC PROJECT

The Nuclear Power Plant EPC Project Handbook Version 1.0 provides a structured multidisciplinary framework for the engineering, procurement, construction, commissioning, and lifecycle management of commercial nuclear power facilities. It establishes a comprehensive methodology that integrates project lifecycle governance, nuclear island systems, balance‑of‑plant systems, civil and structural works, procurement and fabrication, construction, testing and commissioning, operations and maintenance, QA/QC, inspection, regulatory compliance, and the transfer of high‑integrity EPC practices to other industrial sectors. Technical chapters emphasize design basis management, configuration control, material specifications, inspection and test planning, vendor surveillance, construction quality, system turnover, reliability programs, and calculation notes. Worked examples and simplified equations illustrate governing principles, while technical tables, material lists, maintenance frequencies, inspection records, commissioning forms, and risk‑control examples provide practical resources for project teams. Safety‑related design and plant‑specific operating parameters remain subject to licensed designs, regulator requirements, and project‑approved calculations, ensuring compliance with nuclear industry standards. Execution chapters highlight critical interfaces that frequently determine project performance: design‑to‑procurement alignment, supplier‑to‑site traceability, construction‑to‑commissioning turnover, and project‑to‑operations handover. Procurement and vendor control sections reinforce traceability and auditable decision‑making. Construction methodology integrates civil works, heavy equipment installation, welding, alignment, safety safeguards, quality assurance, and progressive completions. Commissioning methodology embeds turnover documentation, inspection records, and reliability indicators, ensuring safe startup and sustainable performance. The handbook is intended for project managers, nuclear engineers, mechanical and electrical engineers, civil and structural specialists, procurement teams, construction managers, QA/QC inspectors, commissioning engineers, operations and maintenance personnel, EPC contractors, owners, and consultants. By combining technical rigor with reproducible workflows and lifecycle governance, it provides a professional, field‑oriented reference that helps multidisciplinary teams understand what must be defined, verified, documented, and accepted at each EPC stage. Ultimately, the Nuclear Power Plant EPC Project Handbook Version 1.0 equips project teams with a disciplined roadmap for reliable nuclear‑plant execution, ensuring operational safety, regulatory compliance, efficiency, and long‑term sustainability.

Rp499.000
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Proposal

GREEN AMMONIA EPC PROJECT

The Green Ammonia EPC Project Handbook Version 1.0 provides a complete project‑execution framework for facilities producing ammonia using renewable electricity, water electrolysis, and nitrogen generation. It establishes a structured methodology that integrates project development, design basis, renewable‑power integration, water treatment, electrolyzer systems, hydrogen compression and storage, nitrogen/air separation, ammonia synthesis, refrigeration and storage, utilities, process safety, materials, civil and structural engineering, mechanical equipment, piping, electrical systems, instrumentation and control, procurement, fabrication, construction, QA/QC, commissioning, operation, maintenance, economics, risk, ESG, and carbon accounting. Each chapter follows a consistent structure: system context, engineering requirements, calculation notes, worked examples, material and equipment specifications, vendor and procurement controls, fabrication and installation sequences, inspection and test plans (ITPs), field‑release records, commissioning documentation, maintenance frequencies, and industrial application references. This organization enables readers to trace technical requirements from concept through final handover. Illustrative mass‑balance and energy calculations demonstrate the scale of green‑ammonia integration. At a reference rate of 1,000 t/d NH₃, stoichiometric hydrogen demand is approximately 176.5 t/d and nitrogen demand approximately 823.5 t/d before process losses and purge effects. Electrolyzer electrical demand is therefore a major project driver, requiring integrated dynamic planning to address renewable variability, grid conditions, hydrogen buffering, and synthesis‑loop turndown. Execution chapters emphasize procurement traceability, vendor‑document controls, fabrication, delivery, installation, inspection, and progressive completions. Commissioning methodology integrates pre‑functional checks, energization, integrated systems testing, and turnover documentation. Maintenance and reliability sections embed preventive and condition‑based tasks, spare‑parts philosophy, and performance trending, ensuring safe startup and sustainable operations. Appendices provide reusable checklists, technical tables, material lists, inspection and commissioning form structures, maintenance matrices, and industry‑application guidance across oil and gas, petrochemical, chemical, power, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine sectors. Ultimately, the Green Ammonia EPC Project Handbook Version 1.0 equips multidisciplinary project teams with a disciplined roadmap for reliable green‑ammonia execution, ensuring operational safety, efficiency, and long‑term sustainability.

Rp499.000
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Proposal

HYDROGEN PLANT EPC PROJECT

The Hydrogen Plant EPC Project Handbook Version 1.0 provides a multidisciplinary framework for the development and execution of industrial hydrogen facilities. It establishes a structured methodology that integrates project governance, hydrogen properties and quality, technology selection, site development, water treatment, renewable and grid power integration, electrolyzers, steam methane reforming (SMR), autothermal reforming (ATR), blue‑hydrogen routes, purification, compression, storage, pipelines, loading systems, materials, piping, mechanical equipment, electrical systems, instrumentation, safety instrumented systems (SIS), civil works, process safety, procurement, construction, QA/QC, commissioning, startup, operations, maintenance, reliability, economics, and sector applications. Technical chapters combine preliminary equations, worked examples, material specifications, procurement controls, inspection and test plans (ITPs), field‑release logic, commissioning forms, maintenance frequencies, risk registers, and industrial application matrices. Worked examples are intentionally simplified to make engineering methods visible, while reinforcing that detailed project design must rely on validated thermodynamic data, vendor packages, and approved discipline calculations. Execution chapters emphasize procurement traceability, vendor‑document controls, fabrication, delivery, installation, inspection, and progressive completions. Commissioning methodology integrates pre‑functional checks, energization, integrated systems testing, and turnover documentation. Maintenance and reliability sections embed preventive and condition‑based tasks, spare‑parts philosophy, and performance trending, ensuring safe startup and sustainable operations. Hydrogen‑specific issues—including leakage, low ignition energy, high‑pressure release, gas detection, ventilation, isolation, and material compatibility—are treated as cross‑disciplinary requirements. These considerations are embedded across process, mechanical, piping, electrical, instrumentation, civil, HSE, and QA/QC disciplines to ensure safety and reliability. Application coverage extends to oil and gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine sectors. Appendices provide reusable templates for calculations, material specifications, procurement controls, inspection and commissioning forms, maintenance records, and sector applicability matrices. Ultimately, the Hydrogen Plant EPC Project Handbook Version 1.0 equips engineers, project managers, procurement specialists, inspectors, construction teams, commissioning personnel, and operators with a disciplined roadmap for reliable hydrogen‑plant execution. By combining technical rigor, reproducible workflows, and lifecycle governance, it ensures projects achieve operational safety, efficiency, and long‑term sustainability.

Rp499.000
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Proposal

BATTERY ENERGY STORAGE SYSTEM EPC

The Battery Energy Storage System EPC Handbook Version 1.0 provides a comprehensive end‑to‑end framework for the engineering, procurement, construction, commissioning, and lifecycle management of utility‑scale and industrial battery energy storage systems (BESS). It establishes a structured methodology that integrates project development and bankability, battery chemistry and enclosure design, power conversion systems, transformers and medium‑voltage networks, EMS/PMS/SCADA/PPC, battery management systems (BMS), cybersecurity, protection and grounding, fire and thermal‑runaway safety, HVAC, civil and plant layout, grid studies, sizing and guarantees, auxiliary systems, detailed engineering, procurement, QA/QC, logistics, construction, HSE, commissioning, grid compliance testing, operations, reliability, degradation, augmentation, emergency response, and project controls. Technical chapters combine fundamental equations, worked examples, calculation notes, material specifications, engineering checklists, inspection and test plans (ITPs), receiving and field inspection forms, commissioning and performance test forms, preventive‑maintenance frequencies, reliability guidance, technical data sheets, and sector application matrices. Worked examples demonstrate how design assumptions—such as battery chemistry parameters, inverter efficiency, and grid stability requirements—are translated into deliverables, acceptance criteria, and lifecycle documentation. Execution chapters emphasize procurement traceability, vendor‑document controls, fabrication, delivery, installation, inspection, and progressive completions. Commissioning methodology integrates pre‑functional checks, energization, integrated systems testing, and turnover documentation. Maintenance and reliability sections embed preventive and condition‑based tasks, spare‑parts philosophy, and performance trending, ensuring safe startup and sustainable operations. The handbook is intended for owners, EPC contractors, consultants, project managers, electrical and control engineers, civil engineers, HSE and QA/QC teams, construction managers, commissioning engineers, and operations personnel. By aligning technical rigor with governance and traceability, it provides a repeatable method for converting project requirements into documented design inputs, verified equipment, installed systems, tested safeguards, complete turnover dossiers, and operating facilities that demonstrate safety, reliability, performance, and contractual compliance. Ultimately, the Battery Energy Storage System EPC Handbook Version 1.0 equips multidisciplinary teams with a disciplined roadmap for reliable BESS execution and long‑term operational success.

Rp499.000
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SOLAR PHOTOVOLTAIC DESIGN AND CONSTRUCTION

The Solar Photovoltaic Design and Construction Handbook Version 1.0 provides an integrated reference for the engineering, procurement, construction, commissioning, and lifecycle management of grid‑connected solar photovoltaic facilities. It establishes a structured methodology that spans feasibility, site investigation, system architecture, module and inverter selection, DC and AC design, substations, protection, earthing, civil and structural works, cable systems, SCADA, energy‑yield modeling, layout optimization, procurement, logistics, construction, testing, commissioning, performance acceptance, operations and maintenance, HSE, QA/QC, and project close‑out. Technical chapters combine design theory with practical calculation notes, design equations, worked examples, material specifications, procurement controls, inspection and test plan (ITP) concepts, inspection records, field‑release sequences, commissioning forms, maintenance frequencies, and reliability procedures. Worked examples illustrate parameter relationships such as irradiance, module efficiency, inverter sizing, cable losses, and grid compliance, while reinforcing that project‑specific validated data must govern final design. Execution chapters emphasize procurement traceability, vendor‑document controls, fabrication, delivery, installation, inspection, and progressive completions. Construction methodology integrates civil works, module mounting, electrical installation, safety safeguards, quality assurance, and progressive completions. Commissioning and operations readiness sections embed turnover documentation, inspection records, and reliability indicators, ensuring safe energization and sustainable performance. A dedicated application chapter compares requirements across oil and gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine sectors. Appendices provide reusable calculation templates, material specifications, procurement controls, inspection and commissioning forms, maintenance records, and sector applicability matrices. The handbook is intended for project managers, discipline engineers, designers, construction teams, QA/QC inspectors, commissioning engineers, owners, consultants, students, and technical personnel who require a coherent view of the entire solar PV EPC lifecycle. By combining technical rigor, reproducible workflows, and lifecycle governance, the Solar Photovoltaic Design and Construction Handbook Version 1.0 delivers a professional, auditable, and field‑ready reference that transforms a site and energy objective into a safe, testable, maintainable, and documented generating asset.

Rp499.000
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RENEWABLE ENERGY EPC PROJECT

The Renewable Energy EPC Project Handbook Version 1.0 provides a comprehensive framework for the engineering, procurement, construction, commissioning, and lifecycle management of renewable and hybrid energy projects. It establishes a structured methodology that integrates design basis, calculations, equipment and material specification, vendor control, logistics, heavy lifting, construction methodology, QA/QC, inspection and test planning, system turnover, commissioning, performance testing, maintenance, and reliability. Technologies covered include utility‑scale and floating solar PV, onshore and offshore wind, hydropower, geothermal, biomass, biogas, waste‑to‑energy, battery energy storage systems (BESS), green hydrogen, microgrids, and grid interconnection. Each technical chapter develops the topic from fundamental design parameters through execution and operations readiness. Worked calculations, technical tables, inspection forms, checklists, maintenance frequencies, and 3D engineering flow diagrams are embedded throughout to ensure traceability and reproducibility. Execution chapters emphasize procurement and vendor control, fabrication, delivery, installation, inspection, and progressive completions. Commissioning methodology integrates pre‑functional checks, energization, integrated systems testing, and turnover documentation. Maintenance and reliability sections embed preventive and condition‑based tasks, spare‑parts philosophy, and performance trending, ensuring safe startup and sustainable operations. The handbook highlights interface management across disciplines, ensuring that process, mechanical, electrical, civil, instrumentation, and control systems are aligned with grid, environmental, and statutory requirements. Constructability validation, commissioning readiness, and acceptance quality are reinforced through structured workflows and auditable records. An industrial application matrix extends the methods to oil and gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine environments. Appendices provide reusable templates for inspection, procurement, commissioning, maintenance, risk management, and handover documentation, supporting consistency and efficiency across diverse project contexts. Ultimately, the Renewable Energy EPC Project Handbook Version 1.0 equips engineers, project managers, procurement specialists, inspectors, construction teams, commissioning personnel, and operators with a disciplined roadmap for reliable renewable‑energy project execution. By combining technical rigor, reproducible workflows, and lifecycle governance, it ensures projects achieve operational safety, efficiency, and long‑term sustainability.

Rp499.000
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LNG PLANT EPC PROJECT MANAGEMENT

The LNG Plant EPC Project Management Handbook Version 1.0 provides an integrated framework for managing liquefied natural gas projects from feasibility and front‑end loading through EPC execution, commissioning, and operations handover. It establishes a structured methodology that connects project governance with process, mechanical, piping, electrical, instrumentation, civil, marine, HSE, quality, procurement, construction, commissioning, project controls, contracts, and reliability considerations. Technical chapters cover feed‑gas pretreatment, dehydration and contaminant removal, refrigeration and liquefaction, cryogenic heat exchangers, compressors and drivers, LNG storage and boil‑off gas systems, marine transfer, utilities and offsites, flare and relief systems, fire protection, piping and cryogenic materials, static and rotating equipment, electrical power, ICSS/SIS/F&G/telecom, procurement, construction, modularization, and system completion/start‑up. Each chapter links engineering theory and calculations with equipment selection, material specifications, procurement controls, construction methodology, inspection requirements, commissioning logic, and maintenance strategies. Management chapters connect these technical systems to governance, risk, cost, schedule, change management, quality assurance, claims, operations readiness, and final acceptance. Worked examples, basic formulas, technical tables, material lists, procurement controls, inspection frequencies, ITP concepts, field‑release checks, commissioning forms, industry application matrices, and conceptual 3D engineering schematics are included to demonstrate traceability and reproducibility. Execution chapters emphasize procurement and vendor control, fabrication, shipping, site installation, heavy lifting, system turnover, startup, and performance testing. Commissioning methodology integrates pre‑functional checks, energization, integrated systems testing, and turnover documentation. Maintenance and reliability sections embed preventive and condition‑based tasks, spare‑parts philosophy, and performance trending, ensuring safe startup and sustainable operations. The primary outcome is a repeatable method for converting project requirements into traceable deliverables, verified equipment, installed systems, tested safeguards, complete turnover dossiers, and an operating facility that demonstrates safety, reliability, performance, and contractual compliance. Ultimately, the LNG Plant EPC Project Management Handbook Version 1.0 equips multidisciplinary project teams with a disciplined roadmap for reliable LNG project execution and long‑term operational success.

Rp499.000
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SUBSTATION AND POWER TRANSMISSION EPC PROJECT

The Substation and Power Transmission EPC Project Handbook Version 1.0 provides an end‑to‑end technical and management framework for the engineering, procurement, and construction (EPC) delivery of high‑voltage substations and overhead transmission systems. It establishes a structured methodology that integrates grid studies, site and layout development, single‑line and busbar design, transformers, AIS/GIS equipment, protection and control systems, SCADA and telecommunications, auxiliary systems, grounding and lightning protection, route surveys, towers and foundations, conductors, OPGW, insulation, sag‑tension analysis, clearances, ampacity, procurement, logistics, construction, testing, commissioning, HSE, QA/QC, project controls, reliability, industry applications, and asset handover. Technical content is organized so that each discipline can understand the downstream consequences of its decisions. Worked calculation notes illustrate governing equations and design checks, while tables summarize material and equipment requirements. Inspection and test plans (ITPs) identify hold, witness, review, and surveillance points. Commissioning forms link pre‑energization evidence to operational acceptance, and maintenance procedures convert the as‑built design into an asset‑management baseline. Execution chapters emphasize project‑stage interfaces from design through fabrication, shipping, site installation, heavy lifting, system turnover, startup, and performance testing. Procurement and vendor control sections highlight traceability, auditable decision‑making, and logistics readiness. Construction methodology integrates civil works, tower erection, conductor stringing, electrical installation, safety safeguards, quality assurance, and progressive completions. Commissioning and operations readiness chapters embed turnover documentation, inspection records, and reliability indicators, ensuring safe energization and sustainable performance. The handbook is intended for project managers, electrical engineers, transmission‑line engineers, civil and structural engineers, procurement specialists, construction managers, QA/QC inspectors, commissioning engineers, operations and maintenance teams, EPC contractors, owners, and consultants. Applicable across oil and gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore/marine, and infrastructure sectors, it delivers a professional, auditable, and field‑ready reference. Ultimately, the Substation and Power Transmission EPC Project Handbook Version 1.0 equips multidisciplinary teams with a disciplined roadmap for reliable project execution, ensuring operational safety, efficiency, and long‑term sustainability.

Rp499.000
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Proposal

DATA CENTER EPC DESIGN CONSTRUCTION & COMMISSIONING

The Data Center EPC Design, Construction & Commissioning Handbook Version 1.0 provides a comprehensive multidisciplinary framework for the planning, engineering, procurement, construction, and commissioning of modern data center facilities. It establishes a structured methodology that integrates resilience architecture, civil and structural works, critical power systems, cooling technologies, fire protection, controls, ICT, security, cybersecurity, sustainability, BIM, procurement, logistics, construction quality, pre‑commissioning, energization, integrated systems testing, reliability, and handover. Each technical chapter combines design theory with calculation notes, worked examples, material specifications, procurement controls, inspection and test plans (ITPs), field checklists, commissioning forms, and maintenance guidance. Practical examples demonstrate how design assumptions—such as load density, cooling demand, and redundancy requirements—are translated into deliverables, acceptance criteria, and lifecycle documentation. Special emphasis is placed on modern high‑density and liquid‑cooled computing, microgrids, battery energy storage systems (BESS), digital twins, operational technology security, and integrated failure testing. These topics highlight the evolving requirements of next‑generation data centers and reinforce the need for resilient, secure, and sustainable infrastructure. Execution chapters emphasize procurement traceability, vendor‑document controls, fabrication, delivery, installation, inspection, and progressive completions. Commissioning methodology integrates pre‑functional checks, energization, integrated systems testing, and turnover documentation. Maintenance and reliability sections embed preventive and condition‑based tasks, spare‑parts philosophy, and performance trending, ensuring safe startup and sustainable operations. An industrial application matrix extends the methods to oil and gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine environments. Appendices provide reusable calculation templates, material specifications, procurement controls, inspection and commissioning forms, maintenance records, and sector applicability matrices. Ultimately, the Data Center EPC Design, Construction & Commissioning Handbook Version 1.0 equips engineers, designers, project managers, procurement specialists, inspectors, construction personnel, commissioning teams, operators, and technical trainees with a disciplined roadmap for reliable data center execution. By combining technical rigor, reproducible workflows, and lifecycle governance, it ensures projects achieve operational safety, efficiency, and long‑term reliability.

Rp499.000
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PIPELINE PROJECT PROPOSAL

The Pipeline Project Proposal Handbook Version 1.0 provides an integrated framework for planning and preparing proposals for pipeline projects across oil and gas, petrochemical, chemical, power, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine applications. It establishes a structured methodology that connects project basis development, codes and standards, route selection, survey, geotechnical and hydrological engineering, hydraulics, pipe sizing, material selection, valves and stations, pumps and compressors, metering and pigging, corrosion control, coating, stress and buckling, crossings, offshore pipelines, welding and nondestructive testing (NDT), construction, hydrotesting, instrumentation and SCADA, electrical systems, HSE, QA/QC, project controls, commissioning, integrity, maintenance, and reliability. Each technical chapter includes design calculations, engineering control notes, worked examples, technical tables, material and equipment specifications, inspection and test concepts, construction checklists, field‑release records, commissioning documentation, maintenance frequencies, and proposal deliverable lists. Original chapter‑specific 3D engineering schematics and field‑application visualizations reinforce clarity and traceability. Industrial application matrices demonstrate adaptability across multiple sectors, ensuring proposals remain versatile and compliant with governing codes and contractual requirements. Execution chapters emphasize procurement, material traceability, and vendor‑document controls. Construction methodology integrates fabrication, delivery, installation, inspection, hydrotesting, and progressive completions. Commissioning and operations readiness sections embed turnover documentation, inspection records, and reliability indicators, ensuring safe startup and sustainable performance. Maintenance and integrity chapters highlight preventive and condition‑based tasks, defect management, and risk‑based planning. Appendices provide reusable calculation templates, material specifications, procurement controls, inspection and commissioning forms, maintenance records, and industrial application references. These resources support proposal teams in maintaining consistency, efficiency, and compliance across diverse pipeline project environments. Ultimately, the Pipeline Project Proposal Handbook Version 1.0 equips engineers, designers, project managers, procurement specialists, inspectors, construction personnel, commissioning teams, and operations staff with a disciplined roadmap for reliable pipeline proposal preparation. By combining technical rigor, reproducible workflows, and lifecycle governance, it ensures proposals are auditable, technically sound, and aligned with both commercial and operational expectations.

Rp499.000
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COAL POWER PLANT

The Coal Power Plant Handbook Version 1.0 provides a comprehensive multi‑discipline reference for the design, construction, commissioning, and lifecycle management of coal‑fired power generation facilities. It establishes a structured methodology that integrates process engineering, mechanical systems, piping, electrical distribution, instrumentation and control, civil and structural works, HSE, QA/QC, and project governance into one coherent framework. Coverage spans coal receiving and handling, pulverized‑fuel preparation, boiler island systems, steam turbine‑generator systems, water‑steam cycle chemistry, cooling water systems, emissions control technologies, electrical systems, and automation. Each technical chapter combines design criteria, calculation notes, worked examples, material specifications, procurement controls, fabrication and erection considerations, inspection and test plans (ITPs), commissioning checks, maintenance frequencies, reliability practices, and technical records. Practical examples illustrate parameter relationships such as combustion efficiency, steam cycle balance, turbine output, and emissions performance, while reinforcing that project‑specific validated data must govern final design. Execution chapters emphasize project‑stage interfaces from design through fabrication, shipping, site installation, heavy lifting, system turnover, startup, and performance testing. Procurement and vendor control sections highlight traceability, auditable decision‑making, and logistics readiness. Construction methodology integrates heavy‑equipment installation, welding, alignment, safety safeguards, quality assurance, and progressive completions. Commissioning and operations readiness chapters embed turnover documentation, inspection records, and reliability indicators, ensuring safe startup and sustainable plant performance. Applications extend beyond coal power plants, with engineering methods applicable to industrial environments involving steam generation, solids handling, rotating equipment, water treatment, electrical distribution, control systems, emissions management, and heavy construction. These include mining, manufacturing, petrochemical, chemical, water and wastewater, and infrastructure projects. Version 1.0 is a structured engineering practice edition intended for continued development. Project teams are advised to update calculations, drawings, specifications, and inspection forms using actual plant data and the latest approved project requirements. Ultimately, the Coal Power Plant Handbook Version 1.0 equips engineers, inspectors, project managers, and operators with a disciplined roadmap for reliable coal‑plant execution and long‑term operational sustainability.

Rp499.000
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INFRASTRUCTURE PROJECT

The Infrastructure Project Handbook Version 1.0 provides an end‑to‑end framework for the planning, design, construction, commissioning, and lifecycle governance of infrastructure projects. It establishes a structured methodology that integrates feasibility studies, surveys, geotechnical engineering, earthworks, roads, bridges, tunnels, rail systems, airports, marine works, water and wastewater facilities, flood control, utilities, power, telecommunications, industrial and mining infrastructure, structural works, construction logistics, temporary works, electrical and control systems, QA/QC, HSE, project controls, commissioning, reliability, BIM, and digital handover. Each technical chapter explains engineering objectives and interfaces, provides basic equations and a worked example, defines typical equipment and materials, and outlines procurement and vendor‑document controls. Fabrication, delivery, and installation sequences are described alongside inspection and test plan (ITP) content, checklist requirements, commissioning steps, and maintenance activities. Worked examples illustrate parameter relationships such as load distribution, hydraulic capacity, and energy demand, while reinforcing that project‑specific validated data must govern final design. Execution chapters emphasize traceability and reproducibility across project stages, from design through fabrication, shipping, site installation, heavy lifting, system turnover, startup, and performance testing. Procurement and vendor control sections highlight auditable decision‑making and logistics readiness. Construction methodology integrates civil works, structural erection, utility installation, safety safeguards, quality assurance, and progressive completions. Commissioning and operations readiness chapters embed turnover documentation, inspection records, and reliability indicators, ensuring safe startup and sustainable infrastructure performance. Sector application matrices demonstrate how requirements vary across oil and gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, and marine projects. Appendices provide reusable templates for inspection, procurement, commissioning, maintenance, risk management, and handover documentation, supporting consistency and efficiency across diverse project environments. Ultimately, the Infrastructure Project Handbook Version 1.0 equips engineers, planners, contractors, inspectors, commissioning teams, and operators with a disciplined roadmap for reliable infrastructure execution, ensuring projects achieve operational safety, efficiency, and long‑term sustainability.

Rp499.000
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PLASTIC PLANT PROJECT

The Plastic Plant Project Handbook Version 1.0 provides a comprehensive engineering reference for the development and execution of polymer and plastics manufacturing facilities. It establishes a structured methodology that integrates process design, utility systems, rotating and static equipment, piping, materials, electrical distribution, instrumentation, safety systems, civil and structural works, HVAC, and dust control into a unified lifecycle framework. Coverage spans polyethylene, polypropylene, PVC, PET, polystyrene, engineering plastics, recycling, and compounding, together with the common process sections used to convert feedstocks into finished pellets or packaged products. Each technical chapter combines design parameters, calculation notes, worked examples, material‑selection considerations, 3D engineering visualizations, industrial‑style field views, technical flow diagrams, inspection checkpoints, maintenance frequencies, and lifecycle execution checklists. Execution chapters emphasize vendor management, fabrication, shop inspection, preservation, transport, heavy lifting, construction, mechanical completion, pre‑commissioning, commissioning, performance testing, operation, maintenance, and reliability. Procurement and vendor control sections highlight traceability, auditable decision‑making, and logistics readiness. Commissioning and operations readiness chapters embed turnover documentation, inspection records, and reliability indicators, ensuring safe startup and sustainable performance. Worked examples are intentionally simplified to make engineering methods visible, demonstrating how process assumptions—such as polymerization kinetics, extrusion throughput, and energy demand—are translated into deliverables, acceptance criteria, and lifecycle documentation. The handbook reinforces that detailed project design must rely on licensor and vendor data, validated thermodynamic and property methods, hydraulic models, stress analysis, electrical studies, and approved discipline calculations. Appendices provide reusable calculation templates, material specifications, procurement controls, inspection and commissioning forms, maintenance records, and industrial application matrices. These resources support engineers, planners, procurement teams, construction crews, and operators in maintaining consistency, efficiency, and compliance across diverse plastic‑plant environments. Ultimately, the Plastic Plant Project Handbook Version 1.0 equips process, mechanical, piping, electrical, instrument, civil, and project engineers; construction and commissioning personnel; QA/QC inspectors; maintenance and reliability teams; technical trainers; and project managers with a disciplined roadmap for reliable plastic‑plant execution and sustainable operations

Rp499.000
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STEEL FABRICATOR PLANT PROJECT

The Steel Fabricator Plant Project Handbook Version 1.0 provides a comprehensive reference for planning, designing, equipping, operating, and controlling modern steel fabrication facilities. It establishes a structured methodology that spans the full project lifecycle from design basis, plant layout, and material receipt through cutting, machining, fit‑up, welding, surface treatment, inspection, packing, transportation, erection, and commissioning. Particular emphasis is placed on traceability, welding engineering, inspection and test planning, dimensional quality assurance, shop productivity, equipment reliability, HSE safeguards, environmental controls, document management, and auditable turnover records. Each technical chapter integrates design criteria, engineering theory, calculation notes, material specifications, procurement requirements, inspection checkpoints, construction workflows, commissioning steps, and maintenance strategies. Worked calculation notes illustrate throughput, steel weight, welding heat input, lifting capacity, coating consumption, maintenance performance, schedule adherence, and cost metrics. These examples are intentionally simplified to make engineering methods visible, while reinforcing that detailed project design must rely on validated discipline calculations, vendor data, and approved codes and standards. Execution chapters emphasize project‑stage interfaces from design through fabrication, shipping, site installation, heavy lifting, system turnover, startup, and performance testing. Procurement and vendor control sections highlight traceability, auditable decision‑making, and logistics readiness. Commissioning and operations readiness chapters embed turnover documentation, inspection records, and reliability indicators, ensuring safe startup and sustainable performance. Application guidance is provided for oil and gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, marine, and infrastructure projects. Appendices consolidate a codes‑and‑standards register, calculation templates, material and procurement controls, ITP and inspection forms, commissioning records, maintenance schedules, sector application matrices, and a glossary. Ultimately, the Steel Fabricator Plant Project Handbook Version 1.0 equips engineers, designers, project managers, procurement specialists, inspectors, construction personnel, commissioning teams, operations staff, and technical trainees with a disciplined roadmap for reliable steel‑plant execution. It ensures that projects are auditable, technically sound, and aligned with both commercial and operational expectations, supporting safe and sustainable industrial performance.

Rp499.000
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RAILWAY PLANT PROJECT

The Railway Plant Project Handbook Version 1.0 provides a multidisciplinary framework for the planning, engineering, construction, verification, and maintenance of railway infrastructure and associated plant facilities. It establishes a structured methodology that integrates route development, geotechnical investigation, track systems, structures, stations, depots, rolling‑stock interfaces, traction power, electrification, signaling, telecommunications, SCADA, electrical distribution, mechanical, electrical, and plumbing (MEP) systems, utilities, digital engineering, materials, fabrication, construction, quality assurance, commissioning, HSE, reliability, industrial integration, and project controls. Each technical chapter combines engineering theory, design parameters, calculation notes, material and equipment specifications, technical flow diagrams, 3D schematics, and representative field visualizations. Practical resources include inspection points, checklists, procurement and fabrication requirements, commissioning acceptance criteria, maintenance strategies, and worked examples. These elements demonstrate how railway design assumptions—such as track alignment, load distribution, signaling logic, and power demand—are translated into deliverables, acceptance criteria, and lifecycle documentation. Execution chapters emphasize project‑stage interfaces from design through fabrication, shipping, site installation, heavy lifting, system turnover, startup, and performance testing. Procurement and vendor control sections highlight traceability, auditable decision‑making, and logistics readiness. Construction methodology integrates civil works, track laying, structural erection, electrical installation, safety safeguards, quality assurance, and progressive completions. Commissioning and operations readiness chapters embed turnover documentation, inspection records, and reliability indicators, ensuring safe startup and sustainable railway performance. Appendices provide reusable templates for calculation notes, material controls, inspection and commissioning forms, maintenance records, risk registers, and sector applicability matrices. These resources support engineers, planners, procurement teams, construction crews, and operators in maintaining consistency, efficiency, and compliance across diverse railway project environments. Ultimately, the Railway Plant Project Handbook Version 1.0 equips multidisciplinary project teams with a disciplined roadmap for reliable railway infrastructure execution. By combining technical rigor, reproducible workflows, and lifecycle governance, it ensures that railway projects achieve operational safety, efficiency, and long‑term sustainability..

Rp499.000
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POWER PLANT

The TEP‑E000‑017 Power Plant Handbook Version 1.0 provides a practical multidisciplinary framework for the design, construction, commissioning, and lifecycle management of power generation facilities. It establishes a structured methodology that integrates thermodynamics, rotating equipment, electrical systems, water chemistry, civil works, automation, safety systems, and complex construction logistics into one coherent reference. Coverage spans conventional steam plants, gas turbine plants, combined‑cycle facilities, renewable generation, and storage integration. Each technical chapter links theory and calculations with equipment selection, materials, procurement control, construction methodology, inspection requirements, commissioning logic, maintenance strategies, and industrial applications. Worked examples demonstrate how design assumptions—such as heat balance, turbine efficiency, water chemistry, and electrical load—are translated into deliverables, acceptance criteria, and lifecycle documentation. Procurement and vendor control chapters emphasize traceability, auditable decision‑making, and logistics readiness. Construction methodology integrates heavy‑equipment installation, alignment, welding, HSE safeguards, quality assurance, and progressive completions. Commissioning and operations readiness sections embed turnover documentation, inspection records, and reliability indicators, ensuring safe startup and sustainable performance. The handbook is written for engineers, supervisors, inspectors, commissioning personnel, operators, maintainers, project managers, vendors, and technical trainees. It is designed for use during conceptual studies, FEED, detailed engineering, technical bid evaluation, vendor document review, factory acceptance testing (FAT), site erection, turnover, startup, performance testing, and subsequent operation. A consistent lifecycle approach is emphasized: every design assumption should be translated into a specification; every specification into an inspection or test requirement; every test into a record; and every record into an auditable turnover package that supports safe operation and long‑term reliability. Ultimately, the TEP‑E000‑017 Power Plant Handbook Version 1.0 equips multidisciplinary project teams with a disciplined roadmap for reliable power‑plant execution. By combining technical rigor, reproducible workflows, and lifecycle governance, it ensures that power generation projects achieve operational safety, efficiency, and long‑term sustainability.

Rp499.000
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FOOD AND BEVERAGE FACTORY

The Food and Beverage Factory Handbook Version 1.5 provides a comprehensive framework for the design, construction, commissioning, and lifecycle management of food and beverage production facilities. It establishes a structured methodology that connects concept development, design basis, fabrication, construction, commissioning, and reliability into a unified reference. This edition emphasizes stronger cover design and clearer chapter visuals, improving readability while maintaining technical depth. Coverage spans raw‑material handling, process design, utilities, mechanical systems, electrical distribution, instrumentation, civil and structural works, safety, QA/QC, procurement, construction methodology, commissioning, and maintenance reliability. Each technical chapter integrates theory, representative formulas, worked examples, specification tables, inspection and test plan (ITP) concepts, maintenance guidance, and industrial‑sector application references. Worked examples demonstrate how process assumptions—such as material flow, energy demand, and quality parameters—are translated into deliverables, acceptance criteria, and lifecycle documentation. Procurement and vendor control chapters emphasize traceability, auditable decision‑making, and logistics readiness. Construction methodology integrates fabrication, delivery, installation, inspection, and progressive completions. Commissioning and operations readiness sections embed turnover documentation, inspection records, and reliability indicators, ensuring safe startup and sustainable performance. Appendices provide reusable templates for calculation notes, specification tables, inspection records, field‑release forms, commissioning documentation, maintenance schedules, and sector applicability matrices. These resources support project teams in maintaining consistency, efficiency, and compliance across diverse food and beverage environments. The handbook is structured in A4 portrait format with internal navigation and a hyperlinked table of contents. Standardized captions, page numbering, and engineering visuals improve clarity and usability. By combining technical rigor, reproducible workflows, and lifecycle governance, the Food and Beverage Factory Handbook Version 1.5 delivers a professional, auditable, and field‑ready reference. Ultimately, it equips engineers, designers, project managers, procurement specialists, inspectors, construction personnel, commissioning teams, operations staff, and technical trainees with a disciplined roadmap for reliable factory execution and sustainable operations.

Rp499.000
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FERTILIZER PLANT

The Fertilizer Plant Handbook Version 1.0 provides an integrated engineering and construction reference for the design, execution, and lifecycle management of fertilizer production facilities. It establishes a structured methodology that connects raw‑material reception, synthesis, granulation, storage, dispatch, utilities, environmental systems, automation, electrical distribution, mechanical equipment, construction, commissioning, and reliability into a unified framework. Process coverage includes ammonia, urea, nitric acid, ammonium nitrate, sulfuric acid, phosphoric acid, diammonium phosphate (DAP), monoammonium phosphate (MAP), NPK formulations, product finishing, bulk handling, and associated offsites. Each process chapter emphasizes design calculations, process and material balances, equipment and material specifications, procurement quality control, inspection and test planning, commissioning logic, maintenance frequencies, reliability practices, and field‑ready records. Worked examples are intentionally simplified to make engineering methods visible, demonstrating how process assumptions translate into deliverables and acceptance criteria. These examples highlight parameter relationships such as reaction stoichiometry, energy demand, and material flow, while reinforcing that detailed project design must rely on licensor and vendor data, validated thermodynamic and property methods, hydraulic models, stress analysis, electrical studies, and approved discipline calculations. Execution chapters cover fabrication, shipping, site installation, heavy lifting, system turnover, startup, and performance testing. Procurement and vendor control sections emphasize traceability, auditable decision‑making, and logistics readiness. Commissioning chapters embed turnover documentation, inspection records, and reliability indicators, ensuring safe startup and sustainable performance. Appendices provide reusable templates for calculation notes, material controls, inspection and commissioning forms, maintenance records, and risk registers. These resources support project teams in maintaining consistency, efficiency, and compliance across diverse fertilizer plant environments. Ultimately, the Fertilizer Plant Handbook Version 1.0 equips engineers, designers, project managers, procurement specialists, inspectors, construction personnel, commissioning teams, and operations staff with a disciplined roadmap for reliable fertilizer plant execution. It ensures that projects are auditable, technically sound, and aligned with both commercial and operational expectations, supporting safe and sustainable industrial performance.

Rp499.000
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HIGH RISE BUILDING PROJECT

The High‑Rise Building Project Handbook Version 1.0 provides an integrated technical reference for the planning, design, construction, commissioning, and lifecycle management of high‑rise building projects. It establishes a structured methodology that connects project definition, design governance, geotechnical and excavation works, architectural planning, BIM coordination, structural systems, wind and seismic design, foundations, concrete and steel construction, façade engineering, HVAC, electrical, plumbing, fire protection, elevators, ELV/BMS systems, construction logistics, temporary works, procurement, quality assurance, HSE, commissioning, and asset performance. Each chapter combines practical engineering theory, representative equations, calculation notes, material and equipment specifications, construction sequences, 3D engineering schematics, and site‑style visualizations. Inspection and test requirements, commissioning steps, maintenance frequencies, and sector application notes are embedded to ensure traceability and reproducibility. Worked examples demonstrate how design assumptions—such as load paths, seismic response, and energy demand—are reconciled with deliverables, acceptance criteria, and lifecycle documentation. Execution chapters emphasize project‑stage interfaces from design through fabrication, delivery, installation, testing, and handover. Procurement and vendor evaluation sections highlight traceability, auditable decision‑making, and logistics readiness. Construction methodology integrates heavy lifting, concrete placement, steel erection, façade installation, HSE safeguards, quality assurance, and progressive completions. Commissioning and operations readiness chapters embed turnover documentation, inspection records, and reliability indicators, ensuring safe startup and sustainable building performance. Dedicated appendices provide worked examples, material‑control templates, ITP and inspection forms, field‑release and commissioning forms, maintenance procedures, application matrices, and master checklists. These resources support engineers, architects, contractors, commissioning specialists, and facility managers in maintaining consistency, efficiency, and compliance across diverse project environments. The handbook is intended to improve coordination and traceability across design, fabrication, delivery, installation, testing, and handover. It can be adapted for residential towers, offices, hotels, hospitals, mixed‑use developments, and high‑rise facilities supporting industrial, infrastructure, and marine projects.

Rp499.000
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CEMENT PROJECT PROPOSAL

The Cement Project Proposal Handbook Version 1.1 provides a comprehensive framework for developing professional proposals across greenfield, brownfield, expansion, and modernization projects for integrated cement plants and grinding facilities. It establishes a structured methodology that connects market analysis, business case development, project basis definition, quarry and raw‑material preparation, crushing and pre‑blending, raw grinding, preheater‑precalciner systems, rotary kiln and clinker chemistry, clinker cooling, cement grinding, storage, and dispatch with supporting mechanical, electrical, instrumentation, civil, and utility systems. Engineering chapters emphasize design criteria, equipment and material considerations, and lifecycle interfaces from design through fabrication, delivery, installation, construction, commissioning, and operations. Calculation notes with worked examples illustrate parameter relationships such as raw‑mix balance, heat recovery, kiln efficiency, grinding performance, and energy demand. Proposal deliverables are contextualized with inspection and test plan (ITP) expectations, commissioning requirements, maintenance strategies, and risk controls, ensuring traceability and reproducibility. Procurement and commercial strategy sections highlight vendor evaluation, material control, logistics readiness, and cost‑schedule traceability. Construction methodology integrates heavy lifting, refractory installation, HSE safeguards, quality assurance, and progressive completions. Commissioning and operations readiness chapters embed turnover documentation, performance testing, and reliability indicators, ensuring safe startup and sustainable plant performance. The appendices provide reusable data‑sheet structures, calculation templates, material specifications, procurement controls, inspection and commissioning forms, maintenance records, application matrices, and master checklists. These resources support proposal teams in maintaining consistency, efficiency, and compliance across diverse cement project environments. A recurring theme is lifecycle readiness. Proposal content is linked to commissioning evidence, preventive‑maintenance schedules, and reliability indicators, ensuring that proposals anticipate long‑term performance. Environmental and sustainability chapters address emissions control, energy optimization, and regulatory compliance, reinforcing responsible project delivery. Ultimately, the Cement Project Proposal Handbook Version 1.1 equips engineers, estimators, planners, procurement specialists, construction teams, and client reviewers with a disciplined roadmap for preparing proposals that are auditable, reliable, and aligned with technical and commercial expectations, supporting safe execution and long‑term operational success.

Rp499.000
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PULP AND PAPER PLANT

The Pulp and Paper Plant Handbook Version 1.0 provides a comprehensive engineering reference for the design, construction, commissioning, and lifecycle management of integrated pulp and paper facilities. It establishes a structured methodology that connects raw‑material supply, wood handling, pulping, washing, bleaching, stock preparation, paper machines, finishing, chemical recovery, steam and power generation, water and effluent treatment, environmental management, instrumentation, electrical systems, mechanical equipment, piping, civil and structural works, safety, QA/QC, procurement, construction, commissioning, maintenance, and digitalization. Each chapter combines fundamental theory, design parameters, material selection, process and utility interfaces, technical flow diagrams, 3D engineering schematics, and representative field visualizations. Practical resources include inspection points, checklists, procurement and fabrication requirements, commissioning acceptance criteria, maintenance strategies, and worked examples. These elements demonstrate how process assumptions—such as fiber yield, chemical balance, energy demand, and water recovery—are translated into deliverables, acceptance criteria, and lifecycle documentation. Procurement and vendor control chapters emphasize traceability, auditable decision‑making, and logistics readiness. Construction methodology integrates heavy‑equipment installation, alignment, welding, inspection, and progressive completions. Commissioning and operations readiness sections embed turnover documentation, inspection records, and reliability indicators, ensuring safe startup and sustainable performance. The appendices provide reusable forms and matrices that can be developed into project templates, including compliance registers, estimate bases, calculation notes, material requisitions, vendor data sheets, inspection records, field‑release forms, commissioning documentation, risk registers, maintenance schedules, and sector applicability matrices. These resources support project teams in maintaining consistency, efficiency, and compliance across diverse industrial environments. The handbook is arranged in A4 portrait format with internal navigation and a hyperlinked table of contents. Standardized captions, page numbering, and engineering visuals improve readability while maintaining technical depth. Ultimately, the Pulp and Paper Plant Handbook Version 1.0 equips engineers, designers, project managers, procurement specialists, construction personnel, commissioning teams, operations staff, and technical trainees with a disciplined roadmap for reliable pulp and paper facility execution and sustainable operations.

Rp499.000
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STEEL FACTORY PLANT PROJECT

The Steel Factory Plant Project Handbook Version 1.0 provides an integrated engineering framework for the development and execution of modern steel factory projects. It establishes a structured methodology that connects raw‑material handling, ironmaking, steelmaking, secondary metallurgy, continuous casting, rolling and finishing, utilities, power distribution, automation, mechanical equipment, civil and structural works, refractory systems, environmental control, HSE, QA/QC, construction, commissioning, maintenance, procurement, and digitalization into a unified lifecycle reference. Each technical chapter combines design criteria, engineering theory, calculation notes, worked examples, material specifications, procurement controls, inspection requirements, construction workflows, commissioning steps, and maintenance strategies. Practical calculation notes illustrate parameter relationships such as furnace efficiency, casting speed, rolling loads, and energy demand. Material‑control principles, inspection and test plans (ITPs), commissioning forms, and reliability methods are embedded to ensure traceability and auditable project execution. Execution chapters emphasize project‑stage interfaces from design through fabrication, shipping, site installation, heavy lifting, system turnover, startup, and performance testing. Procurement and vendor control sections highlight traceability, auditable decision‑making, and logistics readiness. Construction methodology integrates heavy‑equipment installation, welding, alignment, HSE safeguards, quality assurance, and progressive completions. Commissioning and operations readiness chapters embed turnover documentation, inspection records, and reliability indicators, ensuring safe startup and sustainable performance. The handbook also addresses lifecycle maintenance and reliability, including preventive and condition‑based tasks, spare‑parts philosophy, and obsolescence planning. Environmental and sustainability chapters emphasize emissions control, energy optimization, and compliance with regulatory frameworks. Digitalization sections highlight automation, data integration, and digital‑twin applications, reinforcing transparency and efficiency across disciplines. The intended audience includes engineers, designers, project managers, procurement specialists, inspectors, construction personnel, commissioning teams, operations staff, and technical trainees. By combining theoretical rigor, reproducible workflows, and lifecycle documentation, the Steel Factory Plant Project Handbook Version 1.0 equips stakeholders with a professional roadmap for disciplined steel‑plant execution, delivering safe, efficient, and compliant industrial performance.

Rp499.000
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SUGAR PLANT PROJECT

The Sugar Plant Project Handbook Version 1.0 provides a multi‑discipline engineering and construction reference covering the complete cane‑sugar production chain and its supporting utilities. It establishes a structured methodology that integrates process design, equipment specification, construction execution, commissioning, and lifecycle management to ensure safe, efficient, and auditable sugar‑plant performance. Coverage spans cane receiving and preparation, milling and diffusion, juice heating and clarification, mud filtration, evaporation, crystallization, centrifugals, sugar drying and packing, molasses and bagasse handling, boiler and cogeneration systems, water and wastewater treatment, chemical dosing, instrumentation, electrical distribution, mechanical equipment, piping, civil and structural works, heavy lifting, fire protection, construction methodology, inspection, commissioning, maintenance, laboratory quality control, energy optimization, environmental management, project controls, refinery integration, ethanol integration, grid export, and digital plant performance. Each major topic is presented with a design narrative, chapter‑specific 3D engineering flow, representative plant visualization, technical tables, calculation notes, and example parameter relationships. Material and procurement requirements are linked to inspection and test plan (ITP) checkpoints, construction workflows, commissioning steps, maintenance frequency guidance, and troubleshooting prompts. Worked examples demonstrate how process assumptions—such as cane quality, throughput, and energy balance—are translated into deliverables, acceptance criteria, and lifecycle documentation. Ten appendices consolidate design criteria, calculation templates, material specifications, procurement controls, inspection and commissioning forms, reliability tools, HSE checklists, industrial application matrices, and deliverable registers. These resources provide reusable formats for proposal teams, EPC contractors, and plant operators to maintain consistency, efficiency, and compliance across diverse project environments. The handbook is structured as a practical working document exceeding 200 pages, with each chapter beginning on a new page. A4 print‑ready formatting, standardized captions, page numbering, and engineering visuals improve readability while maintaining technical depth. Ultimately, the Sugar Plant Project Handbook Version 1.0 equips owner engineers, EPC teams, consultants, contractors, vendors, commissioning specialists, plant engineers, maintenance personnel, and technical trainees with a disciplined roadmap for reliable sugar‑plant execution and sustainable operations.

Rp499.000
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CPO PLANTATION

The CPO Plantation Handbook Version 1.0 provides a comprehensive framework for managing the oil‑palm value chain from site selection through mill operations and long‑term reliability. It establishes a structured methodology that integrates agronomic practices, industrial processing, engineering disciplines, and lifecycle governance to ensure safe, efficient, and auditable plantation and mill performance. Coverage begins with upstream activities including site selection, nursery management, planting, fertilization, water management, harvesting, and fresh fruit bunch (FFB) transportation. Downstream processes are addressed in detail, including sterilization, threshing, digestion, pressing, clarification, kernel recovery, tank‑farm operations, utilities, and waste/biogas systems. Each stage is contextualized with design criteria, engineering requirements, and operational safeguards. Engineering sections span civil and structural works, electrical systems, instrumentation, HSE, QA/QC, project controls, commissioning, and maintenance reliability. Fundamental formulas, worked examples, specification tables, and technical flow diagrams are provided to demonstrate how agronomic and process assumptions translate into measurable outputs. Material and equipment lists, procurement controls, and interface requirements ensure traceability and auditable decision‑making. Execution chapters emphasize fabrication, delivery, installation, inspection, and commissioning. Templates include inspection and test plans (ITPs), checklists, inspection records, field‑release forms, and commissioning documentation. Maintenance chapters highlight preventive and condition‑based tasks, spare‑parts philosophy, performance trending, and reliability indicators. The handbook also provides a practice‑applicability matrix that demonstrates how CPO plantation principles can be adapted across oil and gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine sectors. This cross‑sector perspective reinforces the versatility of structured engineering and lifecycle management practices. Designed as a professional reference exceeding 200 pages, the handbook features A4 print‑ready formatting with each chapter beginning on a new page. Standardized captions, page numbering, and engineering visuals improve readability while maintaining technical depth. Ultimately, the CPO Plantation Handbook Version 1.0 equips agronomists, engineers, project managers, and operators with a disciplined roadmap for sustainable plantation management and reliable mill operations.

Rp499.000
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OFFSHORE PROJECT PROPOSAL

The Offshore Project Proposal Handbook Version 1.0 provides an integrated framework for preparing professional proposals across offshore project scopes, including fixed platforms, floating production systems, subsea developments, brownfield modifications, and associated marine infrastructure. It establishes a structured methodology that connects proposal governance, execution strategy, discipline engineering, procurement, fabrication, transportation, installation, commissioning, HSE, project controls, digital engineering, reliability, and decommissioning. Proposal governance chapters emphasize compliance, scope clarity, and baseline protection. Engineering sections detail design inputs, indicative equations, calculation notes, and worked examples that demonstrate how offshore assumptions are translated into proposal deliverables. Procurement and vendor evaluation chapters highlight traceability, auditable decision‑making, and logistics readiness. Fabrication and construction methodology integrate heavy‑equipment installation, marine transportation, offshore lifting, quality assurance, and progressive completions, ensuring proposals remain practical and executable. Each technical chapter includes proposal logic, engineering workflows, material and equipment specification guidance, procurement controls, inspection and test plan (ITP) principles, commissioning requirements, maintenance considerations, and proposal checklists. Worked examples illustrate how structural loads, subsea routing, electrical demand, and marine constraints are reconciled with lifecycle deliverables and acceptance criteria. The handbook emphasizes lifecycle readiness. Proposal content is linked to commissioning evidence, preventive‑maintenance schedules, and reliability indicators, ensuring that proposals anticipate long‑term performance. Digital engineering chapters address 3D visualization, data integration, and documentation traceability, reinforcing transparency and consistency across disciplines. Appendices provide reusable templates for compliance matrices, estimate bases, milestone planning, material requisitions, vendor data sheets, inspection records, field‑release forms, commissioning documentation, risk registers, maintenance schedules, and sector application matrices. These resources support proposal managers, engineering leads, discipline engineers, estimators, planners, procurement teams, construction crews, and commissioning personnel in maintaining consistency, efficiency, and compliance across diverse offshore project environments. Ultimately, the Offshore Project Proposal Handbook Version 1.0 equips professionals with a disciplined roadmap for preparing proposals that are auditable, reliable, and aligned with both technical and commercial expectations, supporting safe execution and long‑term operational success.

Rp499.000
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MINERAL PLANT PROJECT

The Mineral Plant Project Handbook Version 1.0 provides a comprehensive framework for mineral‑plant development, spanning the full project lifecycle from metallurgical testwork through operation and reliability. It establishes a structured methodology that integrates process design, equipment specification, construction execution, commissioning, and long‑term maintenance to ensure safe, efficient, and auditable mineral‑processing facilities. Coverage includes major unit operations such as run‑of‑mine (ROM) handling, crushing, screening, conveying, stockpiling, grinding, hydrocyclone classification, gravity concentration, froth flotation, magnetic and electrostatic separation, leaching, thickening, filtration, dewatering, tailings management, process water systems, reagents, utilities, slurry transport, electrical power, automation, civil and structural works, and HSE systems. Each unit operation is contextualized with design criteria, basic formulas, worked examples, technical flow diagrams, equipment and material lists, specifications, design‑review checklists, and interface requirements. Execution chapters cover requisitions, bid evaluation, vendor‑document review, fabrication, factory acceptance testing (FAT), packing, transportation, preservation, erection, alignment, welding, testing, inspection, field release, pre‑commissioning, commissioning, performance testing, and handover. Worked examples and calculation notes demonstrate parameter relationships such as throughput, particle size distribution, separation efficiency, and energy demand, while emphasizing that project‑specific verified data must always govern final design. The handbook integrates procurement controls, inspection and test plan (ITP) checkpoints, commissioning forms, maintenance frequencies, reliability indicators, and spare‑parts philosophy. Templates and appendices provide reusable inspection records, field‑release forms, commissioning documentation, maintenance matrices, and industrial application matrices applicable to oil and gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine projects. A recurring theme is lifecycle reliability. By linking design decisions to measurable field outcomes, the handbook ensures that mineral‑plant projects achieve technical assurance, operational safety, and sustainable performance. Ultimately, the Mineral Plant Project Handbook Version 1.0 equips engineers, planners, procurement teams, construction crews, and operators with a professional roadmap for disciplined mineral‑plant execution and long‑term asset integrity.

Rp499.000
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ENERGY PLANT PROJECT

The Energy Plant Project Handbook Version 1.0 provides an end‑to‑end framework for the design, construction, commissioning, and lifecycle management of energy plant facilities. It establishes a structured methodology that integrates gas turbines, fuel systems, heat recovery steam generators (HRSGs) and boilers, steam turbines, generators, transformers, switchyards, cooling water systems, water treatment, mechanical balance of plant, instrumentation and control, civil and structural works, fire protection, procurement, heavy construction, QA/QC, commissioning, operations, maintenance, renewable integration, and environmental performance. Each technical chapter combines design intent, engineering theory, basic formulas, worked methods, material specifications, procurement controls, inspection requirements, construction workflows, commissioning checks, maintenance frequencies, risk controls, and sector applicability. Worked examples demonstrate how engineering assumptions—such as thermal efficiency, electrical load, water balance, and reliability margins—are translated into deliverables, acceptance criteria, and lifecycle documentation. Procurement and vendor control chapters emphasize traceability, auditable decision‑making, and logistics readiness. Construction methodology integrates heavy‑equipment installation, lifting, supports, HSE safeguards, quality assurance, and progressive completions. Commissioning and operations readiness sections embed turnover documentation, inspection records, and reliability indicators, ensuring safe startup and sustainable performance. The appendices provide calculation notes, sample datasheets, material requirements, inspection and test plans (ITPs), inspection records, field‑release forms, commissioning forms, maintenance matrices, spare‑parts guidance, and industrial‑sector application matrices. These resources support project teams in maintaining consistency, efficiency, and compliance across diverse energy plant environments. A recurring theme is lifecycle reliability. Proposal and execution content is linked to preventive‑maintenance schedules, condition‑based monitoring, and environmental performance indicators, ensuring that energy plants remain safe, efficient, and compliant throughout their service life. The document is designed as an A4 professional print master with a full‑bleed cover, hyperlinked table of contents, standardized captions, page numbering, and distinct engineering visuals for each chapter. This structure improves readability while maintaining technical depth, making the handbook a professional roadmap for disciplined energy plant project execution.

Rp499.000
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PETROCHEMICAL PROJECT PROPOSAL

The Petrochemical Project Proposal Handbook Version 1.0 provides a structured methodology for preparing technically complete, commercially defensible, and execution‑ready proposals across greenfield, brownfield, expansion, revamp, and debottlenecking projects. It establishes a unified framework that connects project development phases, multidisciplinary engineering, process safety, procurement, construction, commissioning, and lifecycle reliability into a coherent proposal strategy. Coverage spans process, mechanical, piping, civil, electrical, and instrumentation design, together with project controls, estimating, risk management, contracting, fabrication, lifting, logistics, inspection, commissioning, and sustainability. Each chapter integrates technical workflows, calculation notes, worked examples, equipment and material specification guidance, procurement controls, inspection and test plan (ITP) checkpoints, commissioning requirements, maintenance considerations, and sector‑specific application notes. Worked examples demonstrate how engineering assumptions—such as process load, equipment sizing, piping routes, and electrical demand—are translated into proposal deliverables, quantities, and acceptance criteria. Procurement and vendor evaluation chapters emphasize traceability, auditable decision‑making, and logistics readiness. Construction methodology integrates heavy‑equipment installation, HSE safeguards, quality assurance, and progressive completions, ensuring proposals remain practical and executable. Appendices provide reusable templates for technical bids, procurement records, inspection forms, commissioning documentation, maintenance frequencies, risk registers, project checklists, and industrial application matrices. These resources support proposal managers, engineering leads, discipline engineers, estimators, planners, procurement teams, construction crews, and commissioning personnel in maintaining consistency, efficiency, and compliance across diverse project environments. A recurring theme is lifecycle readiness. Proposal content is linked to commissioning evidence, preventive‑maintenance schedules, and reliability indicators, ensuring that proposals anticipate long‑term performance. Sustainability chapters address emissions control, energy efficiency, and environmental compliance, reinforcing the importance of responsible project delivery. Ultimately, the Petrochemical Project Proposal Handbook Version 1.0 equips professionals with a disciplined roadmap for preparing proposals that are auditable, reliable, and aligned with both technical and commercial expectations. It ensures that petrochemical project proposals deliver traceable requirements, measurable outcomes, and reduced execution risk across the full project lifecycle.

Rp499.000
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CHEMICAL PROJECT PROPOSAL

The Chemical Project Proposal Handbook Version 1.0 provides an integrated framework for preparing professional proposals in the chemical and process industries. It establishes a structured methodology that connects process design, reaction chemistry, equipment sizing, materials selection, piping, utilities, automation, electrical systems, civil and structural design, plant layout, process safety, environmental controls, and industrial execution planning. Proposal strategy chapters emphasize compliance, scope clarity, and baseline protection. Engineering sections detail design inputs, calculation notes, indicative equations, and worked examples that demonstrate how chemical process assumptions are translated into proposal deliverables. Equipment and material specifications are contextualized with procurement controls, vendor evaluation, and logistics readiness, ensuring proposals remain practical and auditable. Each technical chapter integrates proposal logic, design‑to‑fabrication‑to‑installation workflows, inspection and test plan (ITP) principles, commissioning requirements, maintenance considerations, and proposal checklists. Worked examples illustrate how reaction chemistry, process safety margins, and equipment sizing are reconciled with lifecycle deliverables and acceptance criteria. The handbook emphasizes constructability and lifecycle readiness. Proposal content is linked to commissioning evidence, preventive‑maintenance frequencies, and reliability indicators, ensuring that proposals anticipate long‑term performance. Environmental chapters address emissions control, waste treatment, and sustainability practices, while digital engineering sections highlight 3D flow diagrams, data integration, and documentation traceability. Appendices provide reusable templates for compliance matrices, estimate bases, milestone planning, material requisitions, vendor data sheets, inspection records, field‑release forms, commissioning documentation, risk registers, maintenance schedules, sector applicability notes, and technical calculation sheets. These resources support proposal teams in maintaining consistency, efficiency, and compliance across diverse chemical project environments. Ultimately, the Chemical Project Proposal Handbook Version 1.0 equips engineers, estimators, planners, procurement specialists, construction teams, and client reviewers with a professional roadmap for disciplined proposal preparation. It ensures that chemical project proposals are auditable, reliable, and aligned with both technical and commercial expectations, supporting safe execution and long‑term operational success.

Rp499.000
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Proposal

OIL AND GAS PROJECT PROPOSAL

The Oil and Gas Project Proposal Handbook Version 1.0 provides an end‑to‑end framework for preparing professional proposals across onshore, offshore, pipeline, terminal, petrochemical, power, water, and supporting infrastructure scopes. It establishes a structured methodology that integrates business case development, design basis definition, multidisciplinary engineering, procurement strategy, construction methodology, project controls, QA/QC, HSE, commercial alignment, commissioning readiness, operations preparation, digital engineering, and project closeout. Proposal strategy chapters emphasize compliance, scope clarity, and baseline protection. Engineering sections detail design inputs, indicative equations, worked examples, and deliverable structures. Procurement and vendor evaluation chapters highlight traceability, auditable decision‑making, and logistics readiness. Construction methodology integrates fabrication, shipping, installation, inspection, and commissioning requirements, ensuring proposals remain practical and executable. Each technical chapter includes practical proposal logic, calculation notes, worked examples, material and equipment specification guidance, procurement controls, design‑to‑fabrication‑to‑installation workflows, inspection and test plan (ITP) principles, commissioning requirements, maintenance considerations, and proposal checklists. Worked examples demonstrate how engineering assumptions are translated into proposal quantities, schedules, and acceptance criteria, reinforcing transparency and reproducibility. The handbook emphasizes lifecycle readiness. Proposal content is linked to commissioning evidence, maintenance frequencies, and reliability indicators, ensuring that proposals anticipate long‑term performance. Digital engineering chapters address 3D technical flow drawings, data integration, and documentation traceability, reinforcing transparency and consistency across disciplines. Appendices provide reusable templates for compliance matrices, estimate bases, milestone planning, material requisitions, vendor data sheets, inspection records, field‑release forms, commissioning documentation, risk registers, maintenance schedules, industrial‑sector applicability, and technical calculations. These resources support proposal teams in maintaining consistency, efficiency, and compliance across diverse project environments. Ultimately, the Oil and Gas Project Proposal Handbook Version 1.0 equips engineers, estimators, planners, procurement specialists, construction teams, and client reviewers with a professional roadmap for disciplined proposal preparation. It ensures that oil and gas project proposals are auditable, reliable, and aligned with both technical and commercial expectations.

Rp499.000
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Proposal

ENGINEERING PROCUREMENT CONSTRUCTION OIL GAS PROJECT

The Engineering Procurement Construction Oil & Gas Project Handbook presents an integrated framework for delivering oil and gas EPC projects from opportunity framing through operations handover. It establishes a structured methodology that connects governance, feasibility, front‑end engineering design (FEED), process safety, multidisciplinary engineering, procurement, logistics, construction, commissioning, and startup into a unified lifecycle. Coverage spans civil, mechanical, piping, electrical, and instrumentation disciplines, together with procurement strategy, vendor control, contracting, project controls, risk management, interface coordination, information management, offshore execution, and brownfield integration. Each chapter provides a field view and a distinct 3D engineering visualization, supported by technical workflows, principal deliverables, calculation notes with worked examples, material and procurement controls, inspection and test plan (ITP) checkpoints, commissioning guidance, maintenance considerations, and cross‑sector application matrices. Worked examples demonstrate how engineering assumptions are translated into deliverables, quantities, and acceptance checks. Procurement and vendor control chapters emphasize traceability, auditable decision‑making, and logistics readiness. Construction methodology integrates heavy‑equipment installation, HSE safeguards, quality assurance, and progressive completions. Commissioning and startup sections embed turnover documentation, system‑based completion, and reliability indicators, ensuring readiness for safe operations. Appendices provide reusable templates for deliverables, inspection records, field‑release forms, commissioning documentation, and maintenance registers. These resources support project teams in maintaining consistency, efficiency, and compliance across diverse project environments. The central conclusion is that EPC performance improves when requirements remain traceable across phase boundaries and acceptance evidence is planned before work begins. Progressive assurance, system‑based completion, and lifecycle data quality reduce late discovery, rework, and startup risk. By linking design decisions to measurable field outcomes, the handbook ensures that EPC projects achieve technical assurance, operational safety, and reliable handover. Ultimately, the Engineering Procurement Construction Oil & Gas Project Handbook equips engineers, managers, contractors, and operators with a professional roadmap for disciplined EPC execution, delivering safe, efficient, and compliant projects across the oil and gas sector.

Rp499.000
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Proposal

GENERAL PROPOSAL PROJECT

The General Proposal Project Handbook Version 1.0 provides an integrated reference for preparing industrial project proposals that are technically sound, commercially controlled, constructible, inspectable, commissionable, and maintainable. It establishes a structured methodology that connects strategy, scope definition, engineering deliverables, estimating, scheduling, procurement, contracting, construction, HSE, quality, logistics, commissioning, handover, maintenance, and digital engineering. Proposal strategy chapters emphasize compliance, scope clarity, and baseline protection. Engineering sections detail basis of design, calculation notes, worked examples, and deliverable structures. Estimating and scheduling chapters provide reproducible workflows, while procurement and vendor evaluation sections ensure traceability and auditable decision‑making. Contracting and construction methodology are contextualized with HSE requirements, quality assurance, logistics, and risk controls, ensuring proposals remain practical and executable. Each chapter integrates technical workflows, calculation notes, material and procurement controls, fabrication‑delivery‑installation logic, inspection and test plan (ITP) principles, HSE safeguards, and maintenance considerations. Worked examples demonstrate how design assumptions are translated into proposal quantities, schedules, and acceptance criteria. Multi‑industry application notes highlight adaptation across oil and gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine projects. The handbook emphasizes constructability and lifecycle readiness. Proposal content is linked to commissioning evidence, maintenance frequencies, and reliability indicators, ensuring that proposals anticipate long‑term performance. Digital engineering chapters address 3D technical flow drawings, data integration, and documentation traceability, reinforcing transparency and consistency. Appendices provide reusable templates for bid review, estimate basis, calculation notes, material control, inspection records, field release, commissioning forms, risk registers, maintenance schedules, and sector application matrices. These resources support proposal teams in maintaining consistency, efficiency, and compliance across diverse project environments. Ultimately, the General Proposal Project Handbook Version 1.0 equips engineers, estimators, planners, procurement specialists, construction teams, and client reviewers with a professional roadmap for disciplined proposal preparation. It ensures that industrial project proposals are auditable, reliable, and aligned with both technical and commercial expectations.

Rp499.000
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Electrical

AIRCRAFT WARNING LIGHT REGULATION

The Aircraft Warning Light Regulation handbook provides comprehensive guidance on the design, installation, and lifecycle management of aircraft warning and obstruction lighting systems for industrial and infrastructure projects. It establishes a structured methodology that integrates regulatory compliance, photometric performance, electrical safety, mechanical robustness, structural interfaces, hazardous‑area requirements, inspection protocols, commissioning procedures, and reliability practices. Coverage includes towers, masts, antennas, chimneys, flare stacks, cooling towers, buildings, bridges, tanks, transmission lines and catenaries, wind turbines, offshore structures, cranes, rigs, and temporary obstructions. Regulatory chapters explain international and national aviation authority requirements, intensity classifications, color specifications, and operational mandates for day, twilight, and night conditions. Photometric sections detail luminous intensity, beam distribution, and visibility criteria, while electrical chapters address circuit design, protective devices, monitoring systems, and power reliability. Mechanical and structural considerations include mounting arrangements, vibration resistance, environmental protection, corrosion control, and access for maintenance. Hazardous‑area chapters emphasize compliance with explosion‑proof requirements, bonding, and grounding. Inspection and commissioning sections provide checklists, inspection and test plan (ITP) concepts, field‑release documentation, and commissioning evidence to ensure traceability and auditable acceptance. Worked examples demonstrate how tower height, obstruction geometry, luminous intensity, and redundancy requirements translate into lighting arrangements and circuit configurations. Templates and appendices include material lists, technical tables, inspection records, commissioning forms, maintenance registers, and sector‑specific application matrices. A recurring theme is reliability. Maintenance chapters define preventive and condition‑based tasks, replacement criteria, fault restoration workflows, and reliability indicators. By linking regulatory requirements to measurable field outcomes, the handbook ensures that obstruction lighting systems remain compliant, safe, and dependable throughout their service life. Ultimately, the Aircraft Warning Light Regulation handbook equips engineers, contractors, operators, and inspectors with a professional roadmap for disciplined compliance. It delivers a unified reference that balances regulatory mandates, technical rigor, and practical execution, supporting safe aviation operations and reliable infrastructure performance across diverse industrial environments.

Rp499.000
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Electrical

ELECTRICAL CODE AND STANDARD

The Electrical Code and Standard Handbook presents a comprehensive framework for selecting, interpreting, applying, verifying, and maintaining compliance with electrical codes and standards across industrial projects. It establishes a structured methodology that integrates system design, equipment specification, construction practices, commissioning procedures, and lifecycle maintenance to ensure safe, reliable, and auditable electrical installations. Coverage includes LV, MV, and HV system design, equipment and materials, cabling, earthing, lightning protection, hazardous‑area applications, protection studies, testing, commissioning, records, and maintenance. International code families such as IEC, IEEE, NFPA, and ISO are explained alongside national requirements including PUIL/SNI, utility/PLN regulations, occupational‑safety mandates, and authority approvals. Calculation notes address load assessment, cable sizing, voltage drop, short‑circuit analysis, motor starting, reactive power, earthing, lightning, and arc‑flash studies. Equipment and material specifications are detailed for switchgear, transformers, MCCs, cables, UPS/DC systems, motors, lighting, grounding, and Ex equipment. Worked examples demonstrate how engineering assumptions are translated into verifiable calculations, acceptance criteria, and compliance records. The handbook integrates QA/QC lifecycle practices including procurement control, factory acceptance testing (FAT), receiving inspection, installation ITPs, field‑release procedures, commissioning evidence, and handover documentation. Maintenance and reliability chapters emphasize criticality analysis, preventive and condition‑based tasks, thermography, protection testing, battery/UPS verification, grounding checks, spares management, and obsolescence planning. Sector‑specific application matrices contextualize code and standard practices across oil and gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine environments. Each sector is mapped to environmental conditions, process hazards, and regulatory drivers that influence compliance requirements. By combining theoretical rigor, reproducible calculations, and lifecycle documentation, the Electrical Code and Standard Handbook equips engineers, inspectors, and project teams with a professional roadmap for disciplined compliance. It ensures that electrical systems are designed, installed, and maintained in accordance with international and national standards, delivering safe, efficient, and reliable performance across diverse industrial environments.

Rp499.000
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Electrical

3D MODELS ELECTRICAL

The Models Electrical Handbook Version 1.0 defines a structured methodology for creating, controlling, and applying electrical 3D models throughout the project lifecycle. It establishes a unified framework that integrates engineering theory, modeling criteria, construction practices, and lifecycle governance to ensure reliable, auditable, and maintainable digital assets. Coverage includes model coordinates, level of detail (LOD) and level of information (LOI), data structures, substations, switchgear, transformers, motor control centers (MCCs), generators, UPS/DC systems, cable containment, underground routes, lighting, earthing, lightning protection, supports, hazardous‑area modeling, clash detection, constructability, procurement, heavy‑equipment installation, inspection, commissioning, and digital‑twin applications. Each technical chapter combines engineering principles with 3D modeling requirements, calculation notes, worked examples, material specifications, procurement controls, construction considerations, inspection and test plan (ITP) checkpoints, maintenance frequencies, and industry‑specific application guidance. Worked examples demonstrate how design assumptions are translated into model geometry, acceptance criteria, and traceable deliverables. The handbook also provides reusable forms for model review, material inspection, field release, commissioning, maintenance, and handover. These resources support project teams in maintaining consistency, traceability, and compliance across multidisciplinary environments. Primary outcomes include improved spatial coordination, reduced field clashes, stronger traceability between design intent and model geometry, clearer vendor and construction interfaces, enhanced commissioning readiness, and a more reliable as‑built information asset. By linking design decisions to measurable field outcomes, the handbook ensures that electrical 3D models remain practical, auditable, and aligned with project requirements. Applications span oil and gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine projects. Sector‑specific notes contextualize modeling practices against environmental conditions, process hazards, and reliability drivers. Ultimately, the Models Electrical Handbook Version 1.0 equips engineers, contractors, and operators with a professional roadmap for disciplined 3D modeling. It strengthens technical assurance, supports digital‑twin integration, and delivers a reliable baseline for safe, efficient, and compliant project execution across diverse industrial sectors.

Rp499.000
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Electrical

ELECTRICAL DATA BASE AND PROGRAMMING

The Electrical Data Base and Programming handbook provides a detailed framework for designing, populating, validating, exchanging, and maintaining electrical engineering data across the full project lifecycle. It establishes a structured methodology that integrates information architecture, master data management, equipment and cable registers, engineering automation, database programming, industrial communications, change control, cybersecurity, procurement, construction, commissioning, maintenance analytics, and digital‑twin handover. Technical treatment includes data dictionaries, relational concepts, validation logic, calculation notes, worked examples, SQL and programming patterns, inspection and test records, commissioning evidence, reliability measures, and data‑quality metrics. The handbook emphasizes that electrical data must remain controlled through design, fabrication, shipping, site installation, heavy‑construction activities, pre‑commissioning, energization, and operations. This ensures that engineering information is auditable, traceable, and consistent with project requirements. Worked examples demonstrate how relational structures, validation rules, and calculation workflows are applied to equipment registers, cable schedules, and automation scripts. These examples highlight reproducibility, transparency, and documentation practices, while reinforcing that project‑specific verified data and vendor‑certified tools always take precedence. The handbook integrates procurement controls, inspection and test plan (ITP) checkpoints, commissioning records, maintenance analytics, and reliability indicators. Templates and appendices provide material lists, technical tables, inspection records, commissioning forms, and maintenance registers to support traceability and auditable project deliverables. Applications span oil and gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine facilities. Sector‑specific notes contextualize database programming and electrical information management against environmental conditions, process hazards, and reliability drivers. A recurring theme is scalability. The handbook demonstrates how electrical information systems can be expanded to support engineering decisions, safe execution, repeatable calculations, efficient turnover, and reliable asset management. By combining theoretical rigor with practical programming patterns and lifecycle documentation, the Electrical Data Base and Programming handbook equips engineers, contractors, and operators with a professional roadmap for disciplined data management and digital transformation in electrical engineering

Rp499.000
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Electrical

ETAP SOFTWARE POWER SYSTEM ANALYSIS

The ETAP Software Power System Analysis Handbook Version 1.0 provides a comprehensive framework for conducting engineering studies using ETAP and its associated analysis environments. It establishes a structured methodology that integrates intelligent one‑line modeling, load flow, short‑circuit analysis, protective‑device coordination, motor acceleration, transient stability, harmonics, and arc‑flash inputs and reporting. Advanced topics include electromagnetic‑transient concepts and eMT/eMTCoSim workflows, enabling waveform‑level fidelity where detailed simulation is required. The handbook combines engineering theory with reproducible software practice. Calculation notes and worked examples are included to independently verify ETAP results, ensuring transparency and accuracy. Equipment and material sections connect analytical models to procurement requirements, while construction and commissioning chapters ensure that the as‑built plant remains consistent with the digital model. Maintenance and reliability sections define model‑refresh and revalidation triggers, reinforcing lifecycle governance. Practical controls are embedded throughout the workflow. These include data registers, model‑validation checklists, vendor‑document requirements, inspection and test plan (ITP) concepts, field‑release procedures, commissioning records, sensitivity assessments, study report structures, and lifecycle documentation. The objective is traceability from source document to ETAP input, ETAP result, engineering interpretation, mitigation action, and final approval. Worked examples demonstrate how current demand, circuit resistance, voltage drop, protective‑device ratings, and stability margins are represented within ETAP diagrams and reports. These examples highlight how engineering assumptions are translated into auditable outputs, ensuring that project teams can reconcile software results with field measurements and equipment specifications. Sector applications include oil and gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, marine, and infrastructure facilities. Each sector is contextualized with risk profiles, regulatory constraints, and reliability drivers that influence study parameters and acceptance criteria. By combining theoretical rigor, reproducible workflows, and lifecycle documentation, the ETAP Software Power System Analysis Handbook Version 1.0 equips engineers, operators, and project teams with a professional roadmap for safe, efficient, and compliant power‑system analysis.

Rp499.000
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Electrical

HEATING, VENTILATION AND AIR CONDITIONING (HVAC)

The HVAC Handbook provides a complete professional reference for Heating, Ventilation, and Air Conditioning engineering across the entire project lifecycle. It establishes a structured methodology that integrates design theory, equipment specification, construction practices, commissioning procedures, and long‑term maintenance to ensure safe, efficient, and auditable HVAC systems. The handbook begins with design basis development and psychrometrics, progressing through cooling and heating load calculations, ventilation strategies, ductwork design, and air‑handling equipment selection. It covers chilled‑water and DX systems, refrigeration, cooling towers, boilers, pumps, fans, filtration, humidity control, and Building Management System (BMS) integration. Electrical interfaces, acoustics, fire and smoke control, and hazardous‑area HVAC are addressed to ensure compliance with safety and regulatory requirements. Engineering theory is reinforced with core formulas, calculation chains, and verification checks. Equipment and material sections describe functional requirements, specification fields, procurement traceability, preservation, and vendor‑document control. Construction chapters emphasize receiving, storage, lifting, supports, cleanliness, access, installation tolerances, and interface management. Quality assurance is supported through inspection and test plan (ITP) concepts, inspection records, field‑release requirements, punch management, and commissioning evidence. Maintenance chapters highlight preventive and condition‑based tasks, critical spares, performance trending, and reliability indicators. Sector‑specific notes demonstrate how HVAC principles must be adapted for offshore corrosion, hazardous process areas, electrical rooms, control rooms, laboratories, workshops, substations, marine accommodation, mining dust, and infrastructure environments. A recurring theme is the deliberate linkage of design decisions to measurable field outcomes: air quantity, water flow, temperature, humidity, pressure, cleanliness, noise, vibration, energy efficiency, and safety response. Worked examples illustrate how engineering assumptions are translated into practical selections, acceptance checks, and lifecycle documentation. Ultimately, the HVAC Handbook is a print‑ready reference designed to support disciplined engineering decisions from concept through long‑term operation. It provides clear documentation, auditable acceptance criteria, and a professional roadmap for safe, efficient, and reliable HVAC performance across diverse industrial and commercial environments.

Rp499.000
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Electrical

CONNECTION DIAGRAM FOR HEAT TRACING

The Connection Diagram for Heat Tracing Handbook Version 1.0 provides a comprehensive engineering reference for the preparation, application, and lifecycle management of electrical heat tracing connection diagrams in industrial facilities. It establishes a structured methodology that integrates design calculations, material specifications, installation practices, and maintenance procedures to ensure safe, reliable, and auditable systems. Coverage includes cable technologies, connection kits, junction boxes, glands, terminal blocks, thermostats, RTDs, electronic controllers, contactors, solid‑state relays, overcurrent protection, earth‑leakage protection, earthing and bonding, hazardous‑area interfaces, and detailed connection arrangements for pipes, valves, flanges, pumps, instruments, vessels, tanks, and long or high‑temperature circuits. Each subject is contextualized within practical installation requirements, ensuring diagrams remain accurate representations of field conditions. Detailed chapters address heat‑loss calculations, circuit current, start‑up or inrush behavior, voltage‑drop analysis, breaker sizing, material specifications, procurement controls, fabrication, packing, shipping, storage, construction work packs, inspection and test plans (ITPs), field‑release records, commissioning forms, maintenance frequencies, troubleshooting practices, and document control. Worked examples demonstrate how current demand, circuit resistance, voltage drop, rectifier rating, cable size, shunt range, and heater life directly relate to the wiring represented on the connection diagram. A central engineering principle is traceability. Every connection shown on the diagram must map to a physical terminal, cable, bond, device, or structure, and be verifiable by inspection or test. Conversely, every installed conductor and measurement device must be represented in the controlled drawing set. This bidirectional traceability reduces polarity errors, unintentional bypasses, inaccessible test points, undocumented modifications, and maintenance uncertainty. Appendices provide reusable technical tables, calculation worksheets, material‑list formats, ITP and commissioning forms, maintenance records, industrial‑sector matrices, and as‑built checklists. By combining calculation rigor, constructability, and lifecycle documentation, the Connection Diagram for Heat Tracing Handbook Version 1.0 equips engineers, contractors, and field teams with a professional roadmap for safe installation, reliable operation, and compliant maintenance across oil and gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine environments.

Rp499.000
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Electrical

HEAT TRACING CABLE SCHEDULE

The Heat Tracing Cable Schedule Handbook Version 1.0 provides a complete technical reference for the engineering, scheduling, procurement, construction, inspection, testing, commissioning, and maintenance of electrical heat tracing systems. It is designed to support industrial EPC projects, operating‑plant environments, and training programs by offering a structured methodology that ensures traceability, reliability, and compliance with international standards. The handbook integrates thermal calculations, electrical sizing, and cable technology selection, including self‑regulating and constant‑power designs. Hazardous‑area requirements are addressed in detail, ensuring safe application across diverse industrial facilities. The cable schedule structure is explained with emphasis on panel and circuit interfaces, control and monitoring systems, and installation practices for piping and equipment. Worked examples demonstrate conductor resistance, permissible voltage drop, route length allowances, and acceptance criteria. These examples illustrate how engineering assumptions are translated into schedule coding and field quantities, while reinforcing the importance of reconciling calculations with manufacturer design tools and project‑specific data. The handbook also provides material lists, technical tables, inspection and test plan (ITP) guidance, inspection records, field‑release forms, commissioning documentation, maintenance frequencies, and reliability practices. Templates and appendices include reusable cable schedule formats, sector‑specific application matrices, and checklists to support auditable project deliverables. Constructability is a recurring theme. Installation chapters emphasize routing, mechanical protection, tagging, insulation interfaces, drainage, and environmental safeguards. Maintenance readiness is reinforced through defined inspection intervals, replacement criteria, and troubleshooting workflows. By combining calculation rigor with practical field procedures, the handbook ensures that cable schedules remain reliable and maintainable throughout their service life. Ultimately, the Heat Tracing Cable Schedule Handbook Version 1.0 equips engineers, contractors, and plant operators with a professional roadmap for standardized, traceable, and auditable cable scheduling. It supports safe installation, efficient operation, and long‑term reliability of electrical heat tracing systems across oil and gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, and marine infrastructure projects.

Rp499.000
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Electrical

INSTALLATION DETAIL FOR HEAT TRACING

The Installation Detail for Heat Tracing handbook provides a comprehensive reference for the installation and lifecycle management of electrical heat tracing systems applied to process and utility piping. It establishes a structured methodology that connects engineering design, material specification, construction execution, and maintenance practices to ensure safe, reliable, and auditable installations. The handbook addresses system selection, heat‑loss calculations, circuit sizing, material specification, cable routing, attachment methods, valves and fittings, insulation interfaces, hazardous‑area installations, electrical power and control, testing, commissioning, maintenance, and fault restoration. Each topic is contextualized within practical installation requirements, ensuring that design assumptions are consistently translated into field quantities and acceptance checks. Worked examples demonstrate how thermal and electrical design parameters—such as watt density, voltage drop, circuit length, and protective device ratings—are reconciled with installation details. These examples highlight engineering logic, safety factors, and documentation practices, while emphasizing that project‑specific verified calculations and vendor design tools remain the ultimate authority. The handbook integrates procurement controls, inspection and test plan (ITP) checkpoints, field‑release forms, commissioning records, preventive‑maintenance frequencies, and reliability indicators. Templates and appendices provide material lists, technical tables, inspection records, commissioning forms, and maintenance registers to support traceability and auditable project deliverables. Constructability is a recurring theme. Installation chapters emphasize cable routing, mechanical protection, insulation interfaces, tagging, drainage, environmental safeguards, and access for future maintenance. Reliability practices include defined maintenance intervals, troubleshooting procedures, and restoration workflows to minimize downtime and ensure long‑term performance. Applications span oil and gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore facilities, marine installations, and infrastructure services. Sector‑specific notes contextualize installation practices against environmental conditions, process hazards, and reliability drivers. By combining calculation rigor, constructability, and lifecycle documentation, the Installation Detail for Heat Tracing handbook equips engineers, contractors, and field teams with a reliable roadmap for safe installation, efficient operation, and compliant maintenance of electrical heat tracing systems.

Rp499.000
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Electrical

LAYOUT FOR ELECTRICAL HEAT TRACING

The Layout for Electrical Heat Tracing Handbook Version 1.0 provides an integrated engineering and construction reference for the design, installation, and lifecycle management of industrial electric heat tracing systems. It establishes a consistent layout philosophy that supports safety, temperature control, energy efficiency, maintainability, inspection access, and reliable long‑term performance. The handbook begins with heat‑loss fundamentals and design criteria, linking thermal requirements to cable technology, circuit routing, and power distribution. Control and monitoring systems are addressed alongside junction boxes, piping and equipment details, hazardous‑area requirements, and thermal insulation interfaces. Mechanical protection, earthing, and environmental safeguards are emphasized to ensure constructability and compliance with industrial standards. Simplified engineering equations and worked examples illustrate calculation logic, route planning, voltage‑drop allowances, and conservative design assumptions. These examples are intended to demonstrate workflow and documentation practices, but must always be reconciled with project process data and manufacturer design software before issue for construction. The handbook integrates material specifications, procurement controls, fabrication requirements, construction methodology, inspection and test plans (ITPs), field‑release forms, commissioning records, and maintenance frequencies. Practical checklists and application matrices provide sector‑specific guidance across oil and gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, and marine infrastructure projects. A recurring theme is lifecycle reliability. Commissioning chapters embed structured turnover documentation, inspection access, and maintenance readiness. Reliability practices include defined maintenance intervals, replacement criteria, and traceability of installed components. By combining calculation rigor with constructability and documentation, the handbook ensures that electrical heat tracing layouts remain auditable and maintainable throughout their service life. Ultimately, the Layout for Electrical Heat Tracing Handbook Version 1.0 equips engineers, contractors, and field teams with a professional roadmap for safe installation, efficient operation, and compliant maintenance of heat tracing systems. It provides a unified reference that balances theoretical design, practical field execution, and long‑term reliability across diverse industrial environments.

Rp499.000
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Electrical

HEAT TRACING CALCULATION

The Heat Tracing Calculation handbook provides a practical and auditable methodology for engineering electrical resistance heat tracing systems across industrial and commercial applications. It establishes a structured workflow that connects thermal design, electrical design, material specification, and lifecycle management to ensure safe, reliable, and compliant installations. Thermal design sections develop the heat‑loss basis for insulated piping, tanks, vessels, and localized thermal bridges. The calculation framework applies heat‑balance and thermal‑resistance principles, ensuring transparent assumptions, reproducible formulas, and traceable design decisions. Electrical design chapters cover heater technology selection, circuit sizing, voltage‑drop analysis, start‑up current, protective devices, distribution panels, control architecture, monitoring systems, and hazardous‑area temperature limitations. Worked examples demonstrate how conductor resistance, permissible voltage drop, circuit length, protective device rating, and heater selection are integrated into the engineering workflow. These examples illustrate calculation logic, safety factors, and documentation requirements, while emphasizing that project‑specific verified calculations and vendor design tools always take precedence. The handbook extends beyond design into material specification, procurement control, factory assembly, site installation, inspection and test plans (ITPs), inspection records, pre‑commissioning, commissioning, maintenance, and reliability practices. Templates and appendices provide material lists, technical tables, inspection records, commissioning forms, and maintenance registers to support traceability and auditable project deliverables. Applications span oil and gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore facilities, marine installations, and infrastructure services. Industrial‑sector matrices contextualize calculation practices against environmental conditions, process hazards, and reliability drivers. Current reference standards include IEC/IEEE 62395‑1:2024 and IEC/IEEE 62395‑2:2024 for industrial and commercial resistance trace heating, IEC/IEEE 60079‑30‑1:2025 and IEC/IEEE 60079‑30‑2:2025 for explosive atmospheres, and ISO 12241:2022 for thermal‑insulation calculation principles. These standards provide the governing framework, while project‑adopted codes and manufacturer‑certified data remain the ultimate authority. By combining calculation rigor, constructability, and lifecycle documentation, the Heat Tracing Calculation handbook equips engineers and project teams with a reliable roadmap for safe, efficient, and compliant heat‑tracing implementation.

Rp499.000
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Electrical

GENERAL ELECTRICAL HEAT TRACING

The General Electrical Heat Tracing handbook provides a comprehensive framework for the design, installation, and maintenance of electrical heat tracing systems used to maintain process temperatures and prevent heat loss in industrial facilities. Electrical heat tracing is a distributed heating system that employs resistive elements to compensate for thermal losses in piping, vessels, instrument tubing, tanks, hoppers, drains, and equipment, ensuring safe operating limits are maintained. The handbook emphasizes four simultaneous objectives: thermal performance, electrical safety, process operability, and maintainability. It covers multiple technologies including self‑regulating cables, constant‑wattage systems, series resistance designs, mineral‑insulated cables, and long‑line concepts. Supporting topics include heat‑loss theory, watt‑density selection, power and protection schemes, control architecture, sensor integration, hazardous‑area compliance, thermal insulation, accessories, construction methodology, QA/QC, commissioning procedures, reliability practices, procurement strategies, and cross‑sector industrial applications. Calculation methods are based on heat‑balance and thermal‑resistance principles. Worked examples illustrate engineering workflows, assumptions, safety factors, and documentation requirements. Importantly, the handbook stresses that all calculations must be validated against vendor design tools and product limits, ensuring accuracy and compliance with manufacturer specifications. The examples are intended to demonstrate engineering logic and workflow rather than replace verified project calculations. Lifecycle integration is a recurring theme. The handbook provides guidance on procurement controls, inspection and test plans, commissioning forms, maintenance frequencies, and reliability tracking. Templates and appendices include material lists, technical tables, inspection records, and commissioning documentation to support traceability and auditable project deliverables. By combining theoretical rigor with practical field procedures, the General Electrical Heat Tracing handbook equips engineers and project teams with a reliable roadmap for safe, efficient, and compliant heat‑tracing implementation. It ensures that systems are designed for long‑term performance, operational safety, and maintainability, while remaining adaptable to diverse industrial environments such as oil and gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, and marine facilities.

Rp499.000
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Electrical

CONNECTION DIAGRAM FOR CATHODIC PROTECTION

The Connection Diagram for Cathodic Protection Handbook Version 1.0 presents a complete engineering workflow for the preparation, application, and lifecycle management of cathodic protection connection diagrams. It addresses both impressed‑current and sacrificial‑anode systems applied to pipelines, tanks, buried facilities, marine structures, and offshore installations. Detailed subjects include transformer‑rectifier wiring, anode‑bed junction boxes, test stations, insulating joints, reference electrodes, coupons, shunts, fuses, surge protection, cable selection, DC distribution, grounding interfaces, AC mitigation, remote monitoring, and hazardous‑area constraints. Each topic is contextualized within practical installation and operational requirements, ensuring diagrams remain accurate representations of field conditions. The handbook integrates design calculations, material specifications, procurement controls, fabrication requirements, factory testing, construction methodology, inspection and test plans, commissioning forms, maintenance frequencies, troubleshooting practices, and industrial application matrices. Worked examples demonstrate how current demand, circuit resistance, voltage drop, rectifier rating, cable size, shunt range, and anode life directly relate to the wiring represented on the connection diagram. The central engineering principle is traceability. Every connection shown on the diagram must map to a physical terminal, cable, bond, device, or structure, and be verifiable by inspection or test. Conversely, every installed cathodic protection conductor and measurement device must be represented in the controlled drawing set. This bidirectional traceability reduces polarity errors, unintentional bypasses, inaccessible test points, undocumented modifications, and maintenance uncertainty. Final chapters and appendices provide reusable templates for connection diagrams, material lists, inspection and test plans (ITPs), field‑release records, commissioning forms, maintenance logs, and calculation registers. These resources support professional engineering deliverables, training, and project execution while remaining subordinate to project‑specific approved design requirements. By combining calculation rigor, constructability, and lifecycle documentation, the Connection Diagram for Cathodic Protection Handbook Version 1.0 delivers a professional, auditable, and field‑usable reference. It equips engineers, inspectors, and project teams with a reliable roadmap for safe, efficient, and compliant cathodic protection implementation across diverse industrial environments.

Rp499.000
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Electrical

CABLE SCHEDULE FOR CATHODIC PROTECTION

The Cable Schedule for Cathodic Protection handbook provides an integrated methodology for planning, documenting, and executing cable schedules in corrosion‑control systems. It establishes a structured framework that connects engineering calculations, material specifications, installation practices, and lifecycle governance to ensure reliable and auditable cathodic protection performance. Coverage begins with cable functional classification, conductor and insulation selection, and voltage‑drop and resistance calculations. Derating factors, permissible voltage limits, and route length allowances are explained through worked examples that demonstrate conductor resistance, schedule coding, and acceptance criteria. Cable tagging, routing, junction boxes, transformer‑rectifier interconnections, deep and distributed groundbeds, sacrificial anodes, and test stations are addressed with emphasis on hazardous‑area requirements, direct burial practices, cable trays, terminations, and splices. The handbook integrates procurement and construction execution by providing material lists, technical tables, inspection and test plan (ITP) guidance, inspection records, field‑release forms, commissioning dossiers, and maintenance registers. Commissioning chapters embed structured turnover documentation, reliability practices, and survey protocols to ensure smooth energization and compliance with industry standards. Maintenance readiness is reinforced through defined frequencies, replacement criteria, and reliability tracking. Measurement quality is emphasized as a recurring theme. Voltage‑drop verification, continuity checks, and resistance measurements are meaningful only when reference conditions, contact integrity, and circuit configuration are properly understood. By separating measurement, interpretation, and acceptance, the handbook helps field teams avoid false conclusions caused by shielding, IR drop, or interference. Industrial‑sector application matrices contextualize cable scheduling practices across oil and gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine projects. Each sector is mapped to environmental conditions, process hazards, and reliability drivers that influence final cable specifications. By combining calculation rigor, constructability, and lifecycle documentation, the Cable Schedule for Cathodic Protection handbook delivers a professional, auditable, and field‑usable reference. It equips engineers and project teams with a clear roadmap for standardized, traceable, testable, and maintainable cable schedules that support long‑term corrosion‑control performance.

Rp499.000
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Electrical

INSTALLATION DETAIL CATHODIC PROTECTION

The Installation Detail Cathodic Protection handbook is a comprehensive technical reference designed to guide engineers, contractors, and field teams in the installation, commissioning, and maintenance of cathodic protection systems. It covers applications across buried pipelines, aboveground and underground tanks, plant piping, offshore and subsea structures, jetties, piles, and diverse infrastructure assets. Both galvanic and impressed‑current systems are addressed, with detailed coverage of rectifiers, deep and shallow groundbeds, cabling, test stations, junction and bond boxes, reference electrodes, coupons, insulating joints, and AC/DC interference. The handbook integrates calculation notes, worked examples, material specifications, procurement controls, inspection and test plans, commissioning forms, maintenance procedures, and failure analysis. This structured approach ensures that every stage of installation is auditable, traceable, and aligned with industry standards. Installation chapters emphasize constructability, including heavy‑equipment interfaces, cable protection, coating repair, drainage, tagging, environmental safeguards, and provisions for future maintenance access. A recurring engineering theme is measurement quality. Structure‑to‑electrolyte potentials, anode currents, shunt readings, and survey data are meaningful only when reference electrodes, interruption timing, contact conditions, and electrical continuity are properly understood. To prevent misinterpretation, the handbook separates measurement, interpretation, and acceptance, enabling field teams to avoid false conclusions caused by IR drop, shielding, or interference. By combining theoretical rigor with practical field procedures, the handbook ensures that cathodic protection systems are not only installed correctly but also remain reliable throughout their service life. It highlights the importance of accurate data collection, disciplined commissioning, and proactive maintenance. Appendices provide reusable templates, inspection records, and sector‑specific application matrices to contextualize practices across oil and gas, petrochemical, power generation, water and wastewater, mining, manufacturing, offshore, and marine environments. Ultimately, the Installation Detail Cathodic Protection handbook equips professionals with a reliable roadmap for safe installation, long‑term corrosion control, operational safety, and compliance with international standards.

Rp499.000
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Electrical

CATHODIC PROTECTION LAYOUT

The Cathodic Protection Layout Handbook Version 1.0 provides comprehensive technical guidance for the development of cathodic protection (CP) systems for buried and submerged metallic structures. Its primary focus is on converting design basis and engineering calculations into practical layouts that can be consistently constructed, tested, operated, and maintained throughout the facility lifecycle. Coverage begins with corrosion fundamentals, electrochemistry, polarization, and CP criteria, establishing the scientific foundation for layout design. Pre-design surveys are emphasized, including soil and water resistivity measurements, coating condition assessments, and environmental data collection. Current-demand estimation, galvanic anode sizing, impressed-current cathodic protection (ICCP) sizing, anode bed resistance, and rectifier rating are explained with calculation notes and worked examples. Layout applications span pipelines, tank bottoms, buried plant piping, offshore structures, jetties, piles, and foreign crossings. Material selection, procurement control, fabrication, transportation, installation, and heavy-equipment construction interfaces are addressed alongside QA/QC requirements. Lifecycle activities include pre-commissioning, commissioning, close-interval potential surveys (CIPS), direct-current voltage gradient (DCVG), alternating-current voltage gradient (ACVG), monitoring, troubleshooting, reliability improvement, and life-extension strategies. The handbook emphasizes traceability as a deliverable philosophy. Each requirement is linked to a drawing note, calculation assumption, datasheet parameter, material certificate, inspection record, test result, and final handover dossier. This approach ensures that cathodic protection is not merely a combination of rectifiers and anodes, but a complete asset-integrity system that can be audited throughout its service life. Appendices provide engineering calculations, material specifications, technical tables, inspection and commissioning checklists, preventive-maintenance frequencies, industrial-sector application matrices, and practical registers. Representative 3D drawings and field-style reference images are included to improve constructability understanding and visual consistency. Applicable across oil and gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine projects, the handbook delivers a professional, auditable, and field-usable reference. By combining scientific fundamentals, engineering rigor, and lifecycle governance, it equips engineers and project teams with a reliable roadmap for safe, efficient, and compliant CP system deployment.

Rp499.000
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Electrical

CATHODIC PROTECTION CALCULATION

The Cathodic Protection Calculation Handbook presents practical engineering methods for the design, verification, and lifecycle management of cathodic protection systems, covering both galvanic (sacrificial-anode) and impressed-current configurations. It establishes a structured methodology that connects corrosion-control intent with transparent calculations, constructability, and long-term reliability. Core calculations include coated surface area determination, coating breakdown factors, design current density, total protection current, anode resistance, anode mass and number, utilization efficiency, groundbed resistance, rectifier DC output sizing, cable voltage drop, power rating, design life, and spare capacity margins. Measurement topics are integrated to ensure field verification, including pipe-to-soil potential, instant-off potential, polarization checks, close-interval surveys, DC voltage gradient, continuity testing, isolation verification, and interference assessment. Worked examples are intentionally transparent, allowing assumptions to be replaced with project-specific data. These examples demonstrate how protective-current demand and circuit resistance are translated into rectifier ratings, how voltage drop is evaluated, how groundbed resistance and anode life are estimated, and how design margins are organized to ensure compliance and reliability. The handbook further integrates material specification guidance, procurement control, installation practices, construction equipment interfaces, inspection and test plans (ITPs), field release protocols, pre-commissioning, commissioning, performance verification, routine survey methods, maintenance frequencies, and reliability improvement strategies. Technical tables provide measurable specifications, acceptance criteria, and traceable evidence for quality assurance. Appendices include datasheet templates, inspection records, commissioning checklists, maintenance logs, and troubleshooting registers, ensuring auditable documentation across the project lifecycle. Sector application matrices contextualize cathodic protection practices across oil and gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine facilities. By combining calculation rigor, transparent methodology, and lifecycle governance, the Cathodic Protection Calculation Handbook delivers a professional, auditable, and field-usable reference. It equips engineers, inspectors, and project teams with a reliable roadmap for safe, efficient, and compliant cathodic protection implementation, supporting asset integrity and corrosion control across diverse industrial environments.

Rp499.000
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Electrical

TRANSFORMER RECTIFIER CATHODIC PROTECTION

The Transformer Rectifier Cathodic Protection Handbook presents a complete engineering framework for the design, application, and lifecycle management of transformer-rectifier (TR) systems used in impressed-current cathodic protection (ICCP). It establishes a closed technical loop in which corrosion criteria define protective-current demand, the TR delivers controlled current, field measurements prove performance, and lifecycle records confirm continuing protection. Core topics include electrochemical fundamentals, TR architecture, transformer, diode, and SCR design, control and metering, AC and DC protection, anode groundbeds, and reference electrodes. Applications span pipelines, tanks, offshore structures, water systems, and infrastructure facilities. Survey methods are explained to verify protection levels and ensure compliance with industry standards. Worked examples demonstrate how to translate protective-current demand and circuit resistance into practical DC output ratings, how to screen AC input current, how to evaluate cable voltage drop, how to estimate groundbed resistance and anode life, and how to organize design margins. These examples provide engineers with traceable calculations and verifiable design assurance. Lifecycle sections cover procurement, fabrication, factory acceptance testing (FAT), construction, commissioning, maintenance, reliability, health, safety, and environmental (HSE) practices. Technical tables define typical material requirements, inspection points, maintenance frequencies, and acceptance evidence. Appendices include sample inspection and test plans (ITPs), FAT/SAT forms, field release records, commissioning checklists, maintenance logs, and troubleshooting registers. The handbook emphasizes reliability and modernization, addressing obsolescence management, upgrade strategies, and digital monitoring integration. Sector application matrices contextualize ICCP practices across oil and gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine projects. By combining electrochemical principles, transformer-rectifier design, and lifecycle governance, the Transformer Rectifier Cathodic Protection Handbook delivers a professional, auditable, and field-usable reference. It equips engineers, inspectors, and project teams with a reliable roadmap for safe, efficient, and compliant ICCP deployment, ensuring long-term corrosion protection and asset integrity across diverse industrial environments.

Rp499.000
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Electrical

INSTALLATION DETAIL FOR COMMUNICATION SYSTEM

The Installation Detail for Communication System Handbook provides a comprehensive engineering framework for the installation, commissioning, and lifecycle management of communication systems in industrial and infrastructure facilities. It establishes a structured methodology that connects design intent with site execution, ensuring traceability, compliance, and long-term reliability. Coverage includes communication rooms and racks, cable containment, underground ducts, fiber optics, structured copper cabling, Ethernet, CCTV, public address/general alarm (PA/GA), telephones and intercoms, VHF/UHF radio, microwave links, satellite and GNSS systems, WLAN deployment, and time synchronization. Power systems, telecom UPS, earthing, surge protection, and firestopping are addressed to ensure resilience and safety. Health, safety, and environment (HSE) practices are integrated with quality assurance and quality control (QA/QC) requirements to support safe and auditable installation. Engineering guidance emphasizes constructability, including cable routing, termination, labeling, grounding, EMC compliance, and installation quality. Testing and commissioning sections cover inspection and test plan (ITP) structures, site acceptance testing (SAT), handover protocols, documentation, and preventive maintenance strategies. Procurement and material control are embedded through bill-of-material (BOM) registers, preservation practices, and inspection records. Appendices provide worked calculation notes, material specifications, inspection records, SAT and handover forms, maintenance matrices, industrial-sector application guidance, and typical installation checklists. Representative registers and templates ensure consistency and traceability across project phases. Applicable across oil and gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine projects, the handbook delivers a professional, auditable, and field-usable reference. By combining structured methodology, technical rigor, and lifecycle governance, it equips engineers, inspectors, and project teams with a reliable roadmap for safe, efficient, and compliant communication-system installation.

Rp499.000
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Electrical

FIBER OPTIC CONCEPT AND INSTALLATION

The Fiber Optic System Handbook provides an integrated engineering framework for the design, installation, and lifecycle management of fiber optic systems across oil and gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine facilities. It establishes a structured methodology that connects design intent with constructability and long-term reliability. Core topics include single-mode and multimode fibers, cable construction, connectors, splices, enclosures, routes, ducts, trenches, aerial systems, structured cabling, and subsea interfaces. Engineering methods emphasize optical loss budgeting, power margin calculations, attenuation and dispersion concepts, route-length allowances, bend radius and pulling considerations, optical time-domain reflectometer (OTDR) distance principles, and reliability metrics. Construction guidance covers cable drum control, trench and duct preparation, pulling, jetting and blowing techniques, heavy equipment interfaces, splicing, termination, labeling, enclosure sealing, and as-built documentation capture. These practices ensure that fiber optic systems are installed with precision, durability, and compliance with project standards. Worked examples demonstrate optical link loss, conduit fill, UPS battery capacity, rack utilization, and availability logic. Technical tables translate design philosophy into measurable specifications and acceptance criteria, ensuring traceability and auditable compliance. Material specifications, inspection records, commissioning checklists, preventive-maintenance frequencies, and industrial-sector application matrices are included to support lifecycle governance. Appendices provide datasheet templates, procurement controls, inspection and test plan (ITP) structures, commissioning forms, maintenance registers, and reliability records. Representative 3D drawings and field-style reference images are integrated to improve constructability understanding and visual consistency, bridging design documentation with site execution. By combining structured methodology, technical rigor, and lifecycle assurance, the Fiber Optic System Handbook delivers a professional, auditable, and field-usable reference. It equips engineers, inspectors, and project teams with a reliable roadmap for safe, efficient, and compliant fiber optic system deployment across diverse industrial and infrastructure environments

Rp499.000
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Electrical

CONNECTION DIAGRAM COMMUNICATION SYSTEM

The Communication-System Connection Diagram Handbook provides a lifecycle engineering framework for the preparation, application, and management of communication-system connection diagrams in industrial facilities. It establishes a structured methodology that translates physical and logical communication architecture into source-to-destination connection information that is unambiguous for fabrication, installation, inspection, testing, and maintenance. Core topics include fiber optics, copper Ethernet, structured cabling, telecom racks, switches, routers, firewalls, IP telephony, public address/general alarm (PA/GA), CCTV, access control, radio, intercom, distributed control system (DCS) and supervisory control and data acquisition (SCADA) interfaces, safety interfaces, time synchronization, wireless systems, power supplies, UPS, PoE, grounding, electromagnetic compatibility (EMC), hazardous-area installations, outdoor and offshore applications, cable termination, and cybersecurity segmentation. The handbook emphasizes construction and lifecycle activities, including procurement, factory acceptance testing (FAT), site acceptance testing (SAT), commissioning, reliability assurance, and sector-specific applications. Engineering calculations are provided for optical link loss, conduit fill, UPS battery capacity, bandwidth allocation, rack utilization, and availability logic. Technical tables translate design philosophy into measurable specifications and acceptance criteria, ensuring traceability and compliance. Material specifications, inspection and commissioning checklists, preventive-maintenance frequencies, and industrial-sector application matrices are included to support quality assurance and lifecycle governance. Appendices provide practical registers, datasheet templates, inspection records, FAT/SAT forms, commissioning checklists, and maintenance logs. Representative 3D drawings and field-style reference images are integrated to improve constructability understanding and visual consistency, bridging design documentation with site execution. Applicable across oil and gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine facilities, the handbook delivers a professional, auditable, and field-usable reference. By combining structured methodology, technical rigor, and lifecycle governance, it equips engineers, inspectors, and project teams with a reliable roadmap for safe, efficient, and compliant communication-system deployment.

Rp499.000
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Electrical

CLOSED CIRCUIT TELEVISION (CCTV) SYSTEM

The Closed Circuit Television (CCTV) System Handbook Version 1.0 provides a comprehensive technical framework for the engineering, installation, and lifecycle management of industrial video surveillance systems. It establishes a structured methodology that connects system architecture, design intent, and operational reliability across diverse industrial and infrastructure environments. Core topics include camera technologies, optics, and DORI (Detect, Observe, Recognize, Identify) principles, site survey and coverage planning, IP networking, Power over Ethernet (PoE), video management systems (VMS), network video recorders (NVR), analytics, bandwidth and storage calculations, UPS and grounding, copper and fiber infrastructure, and installation practices. Hazardous-area and offshore considerations are addressed to ensure compliance with environmental and regulatory requirements. Control room design and systems integration are emphasized to support centralized monitoring and coordinated response. Quality assurance and commissioning sections cover inspection and test plans (ITPs), QA/QC procedures, factory acceptance testing (FAT), site acceptance testing (SAT), commissioning protocols, and maintenance strategies. Worked examples demonstrate pixel-density calculations, field-of-view analysis, storage capacity estimation, PoE sizing, UPS autonomy, fiber-loss evaluation, wind-load assessment, and reliability metrics. Technical tables translate design philosophy into measurable specifications and acceptance criteria, ensuring traceability and auditable compliance. The appendices provide material datasheet templates, procurement controls, inspection records, FAT/SAT forms, commissioning checklists, maintenance records, reliability logs, and industrial-sector application matrices. These resources support engineers, inspectors, and project teams in achieving consistent quality and lifecycle governance. The intended audience includes CCTV/security engineers, electrical and instrumentation engineers, telecommunications engineers, project engineers, EPC contractors, owners, inspectors, commissioning teams, and maintenance personnel. Applicable across oil and gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine facilities, the handbook delivers a professional, auditable, and field-usable reference. By combining structured methodology, technical rigor, and lifecycle assurance, it equips project teams with a reliable roadmap for safe, efficient, and compliant CCTV system deployment.

Rp499.000
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Electrical

LOCAL AREA NETWORK LAN SYSTEM

The Local Area Network (LAN) System Handbook Version 1.0 provides a structured reference for engineering, specifying, procuring, installing, testing, commissioning, and maintaining wired and wireless LAN infrastructure across enterprise and industrial environments. It establishes a systematic methodology that connects design intent with site execution and lifecycle reliability. The scope covers physical media through Layer-2 and Layer-3 architecture, core and access switching, routing, firewalls, WLAN deployment, network services, monitoring, and cybersecurity. Engineering topics include IPv4/IPv6 planning, VLAN segmentation, redundancy strategies, Quality of Service (QoS), copper and fiber cabling, rack and equipment-room design, Power over Ethernet (PoE), optical power-budget calculations, uplink oversubscription, WLAN path-loss estimation, capacity headroom, and availability metrics. Construction topics address containment, cable pulling, termination, labeling, grounding and bonding, electromagnetic compatibility (EMC), material preservation, and installation quality. Quality and commissioning content includes inspection and test plan (ITP) structures, inspection forms, copper certification, fiber testing, configuration audits, redundancy and failover tests, site acceptance testing (SAT), field release, punch management, handover, and as-built documentation. Operation and reliability sections define preventive maintenance frequencies, configuration backup strategies, firmware lifecycle management, spare parts planning, performance baselines, and obsolescence management. Worked examples illustrate optical link loss, conduit fill, rack utilization, oversubscription analysis, and availability logic, ensuring traceable calculations and verifiable design margins. Each chapter is supported by technical tables, schematic diagrams, and flow charts to enhance clarity and usability. By combining structured methodology, technical rigor, and lifecycle governance, the LAN System Handbook delivers a professional, auditable, and field-usable reference. It equips engineers, IT specialists, and project teams with a reliable roadmap for safe, efficient, and compliant LAN deployment across diverse industrial and infrastructure environments.

Rp499.000
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Electrical

PAGING, LOAD SPEAKER AND RADIO SYSTEM

The Paging, Loudspeaker and Radio System Handbook provides an integrated engineering reference for industrial voice communication and emergency coordination systems. It establishes a structured methodology that combines centralized and distributed paging, constant-voltage loudspeaker networks, analog and digital radio systems, repeaters, antennas, IP audio platforms, fiber backbones, battery backup, hazardous-area equipment, and control-system interfaces. Design topics are comprehensively addressed, including acoustic propagation, sound pressure level calculations, directivity, intelligibility, coverage zoning, amplifier sizing, cable voltage drop, circuit supervision, UPS and battery autonomy, earthing, electromagnetic compatibility (EMC), radio link budgets, Fresnel-zone considerations, antenna selection, network resiliency, and availability calculations. These elements ensure that communication systems are technically justified, auditable, and adaptable to diverse industrial environments. The project lifecycle sections cover material specifications, procurement strategies, technical bid evaluation, fabrication, factory acceptance testing (FAT), preservation, site receiving, installation, cable routing, heavy lifting, inspection and test plans (ITPs), pre-commissioning, site acceptance testing (SAT), commissioning, training, operations, preventive maintenance, troubleshooting, spare parts management, and obsolescence planning. This lifecycle approach ensures traceability, quality assurance, and long-term reliability. Worked examples and appendices provide practical tools such as extension sizing, trunk occupancy, optical link loss, conduit fill, UPS battery capacity, voice bandwidth allocation, rack utilization, and availability logic. Datasheet templates, material lists, cable schedules, inspection records, FAT/SAT forms, commissioning checklists, maintenance records, glossaries, and standards/reference matrices are included to support engineers in both design and field execution. Applicable across oil and gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine facilities, the handbook delivers a professional, auditable, and field-usable reference. By integrating structured methodology, technical rigor, and lifecycle governance, it equips project teams with a reliable roadmap for safe, efficient, and compliant deployment of paging, loudspeaker, and radio communication systems in industrial and infrastructure environments.

Rp499.000
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Electrical

TELEPHONE SYSTEM LAYOUT

The Telephone System Layout Handbook defines a comprehensive engineering methodology for the planning, design, and implementation of telephone systems in industrial and infrastructure facilities. It establishes a structured approach that integrates architecture, service classification, numbering schemes, call-control platforms, external trunk arrangements, and endpoint selection. Special emphasis is placed on industrial and hazardous-area telephones, emergency and hotline services, and compliance with safety and reliability requirements. The handbook addresses copper and fiber cabling, MDF/IDF/ODF arrangements, telecom room layouts, plant-wide distribution, and cable pathways. Power systems, UPS integration, Power over Ethernet (PoE), and grounding practices are explained with calculation notes to ensure resilience and maintainability. Network segmentation and redundancy strategies are included to support high availability and minimize service disruption. Worked examples illustrate extension sizing, trunk occupancy, optical link loss, conduit fill, UPS battery capacity, voice bandwidth allocation, rack utilization, and availability logic. These examples provide engineers with traceable calculations and verifiable design margins. Procurement and construction guidance is embedded through material specifications, controlled interfaces, and inspection and test plans (ITPs). Commissioning and maintenance procedures are detailed with checklists, inspection records, and field-release forms to ensure lifecycle integrity. The engineering approach is based on traceable input data, controlled interfaces, maintainable physical arrangements, quantified capacity, and design margins. Verification is achieved through technical reviews, and completion is documented by inspection and test records. Sector application guidance ensures adaptability across oil and gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine projects. Each chapter is supported by technical tables, schematic diagrams, and flow charts to enhance clarity and usability. By combining structured methodology, technical rigor, and lifecycle governance, the Telephone System Layout Handbook delivers a practical, auditable, and field-usable reference. It equips engineers and project teams with a reliable roadmap for safe, efficient, and compliant telephone system deployment across diverse industrial and infrastructure environments.

Rp499.000
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Electrical

INSTALLATION DETAIL FOR FIRE ALARM

The Installation Detail for Fire Alarm Handbook provides a comprehensive and practical framework for engineers, contractors, and practitioners engaged in the installation of fire alarm systems across industrial and infrastructure facilities. It emphasizes the importance of translating design intent into precise site execution, ensuring that fire detection, alarm, and notification systems are installed in compliance with standards, manufacturer listings, and project specifications. The handbook begins with preparatory activities such as site surveys, risk assessments, and coordination with civil, mechanical, and electrical disciplines. It details installation requirements for fire alarm control panels (FACP), signaling line circuits, detector bases, manual stations, monitor and control modules, notification appliance circuits, and voice evacuation systems. Special attention is given to integration with sprinklers, suppression systems, HVAC shutdown, elevator recall, and door release mechanisms, ensuring cross-functional safety performance. Power supply and battery installation are explained with calculation notes for autonomy, voltage drop, and spare capacity. Cable routing, termination, and survivability practices are highlighted to ensure durability, segregation, and compliance with fire-resistive standards. The handbook also addresses installation in offshore and marine environments, where harsh conditions demand specialized materials and methods. Technical notes include simplified calculation methods, worked examples, equipment and material specification guidance, procurement hold points, inspection records, commissioning forms, and industrial-sector selection matrices. These tools support traceability, quality assurance, and adaptability across oil and gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine projects. Each chapter is structured to enhance rapid understanding by combining a dedicated 3D engineering schematic, an equipment-style visualization, and a technical flow diagram. This layered approach supports clarity of concept, consistency of execution, and traceability of engineering decisions. The handbook’s objective is to provide a practical, auditable, and field-usable reference that bridges fire safety intent with implementable installation practice. It strengthens technical assurance, minimizes risk, and supports safe, efficient, and compliant fire alarm system installation across diverse industrial and infrastructure environments.

Rp499.000
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Electrical

CONNECTION DIAGRAM FOR FIRE ALARM

The Connection Diagram for Fire Alarm Handbook provides a consolidated and practical framework for engineers, designers, and practitioners working with both conventional and addressable fire alarm systems. It emphasizes clarity in connection diagrams, ensuring that system architecture is properly documented, auditable, and field-usable. The handbook begins with the fundamentals of Fire Alarm Control Panel (FACP) architecture and signaling line circuits, explaining how detector bases, manual stations, monitor modules, and control modules are interconnected to form reliable detection and response networks. Notification appliance circuits are detailed with horns, strobes, speakers, and voice evacuation systems, highlighting intelligibility, synchronization, and survivability requirements. Integration with other safety systems is thoroughly addressed, including sprinkler interfaces, suppression interfaces, HVAC shutdown, elevator recall, and door release mechanisms. Power and battery systems are explained with calculation notes for autonomy, voltage drop, and spare capacity, while cable and terminal practices are included to ensure durability, segregation, and compliance with fire-resistive standards. Technical tables, calculation notes, and worked examples provide clarity on loop margins, response-time budgeting, and redundancy strategies. Material specifications, inspection and test plan (ITP) templates, checklists, inspection records, field release forms, and commissioning forms are integrated to support traceability and quality assurance. Sector application guidance ensures adaptability across oil and gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine projects. Each chapter is structured to enhance rapid understanding by combining a dedicated 3D engineering schematic, an equipment-style visualization, and a technical flow diagram. This layered approach supports clarity of concept, consistency of execution, and traceability of engineering decisions. The handbook’s objective is to provide a practical, auditable, and field-usable reference that bridges fire safety intent with implementable engineering practice. It strengthens technical assurance, minimizes risk, and supports safe, efficient, and compliant fire alarm system implementation across diverse industrial and infrastructure environments.

Rp499.000
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Electrical

FIRE ALARM CONCEPT AND FIRE FIGHTING SYSTEM

The Fire Alarm Concept and Fire Fighting System Handbook provides a consolidated engineering framework for fire detection, alarm, notification, and active fire-fighting systems in industrial and infrastructure facilities. It establishes a structured methodology that begins with fire risk assessment and proceeds through system design, installation, commissioning, and lifecycle maintenance. Core topics include addressable fire alarm networks, smoke, heat, flame, and aspirating detection technologies, cause-and-effect logic programming, voice evacuation systems, power supplies and battery backup, and cable survivability requirements. Active fire-fighting systems are comprehensively covered, including fire-water storage, fire pumps, hydrants, standpipes, sprinklers, deluge and water spray systems, foam-water applications, clean-agent and CO₂ suppression, portable extinguishers, and passive fire-protection coordination. Offshore and marine applications are addressed with sector-specific considerations for harsh environments and regulatory compliance. Technical notes provide simplified calculation methods, worked examples, equipment and material specification guidance, procurement hold points, inspection records, commissioning forms, and industrial-sector selection matrices. These tools ensure that designs are technically justified, auditable, and adaptable across diverse facilities such as oil and gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine projects. Each chapter is structured to enhance rapid understanding by combining a dedicated 3D engineering schematic, an equipment-style visualization, and a technical flow diagram. This layered presentation supports clarity of concept, consistency of execution, and traceability of engineering decisions. The handbook emphasizes that fire safety intent must be connected to detailed design, site execution, and lifecycle integrity. It does not replace applicable laws, adopted standards, or manufacturer listings, but rather provides a practical, auditable reference that strengthens technical assurance, minimizes risk, and supports safe, efficient, and compliant fire-protection implementation. By integrating detection, alarm, notification, suppression, and passive protection into a unified framework, the handbook equips engineers with a reliable roadmap for achieving fire safety objectives across industrial and infrastructure environments.

Rp499.000
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Electrical

FIRE ALARM AND GAS DETECTION SYSTEM

The Fire Alarm and Gas Detection System Handbook provides a structured reference for engineering, design, and lifecycle management of fire alarm and gas detection systems across oil & gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine facilities. It consolidates conventional and addressable fire alarm systems, combustible and toxic gas detection, oxygen monitoring, flame detection, notification appliances, controllers, field interfaces, and associated cabling and power systems into one auditable framework. Technical coverage includes design basis development, detector technology selection, zoning, detector placement, alarm setpoints, cause-and-effect logic, voting arrangements, battery sizing, power supplies, cable and loop design, hazardous-area considerations, and material selection. Procurement control, inspection and test plans (ITPs), installation details, field release, factory acceptance testing (FAT), site acceptance testing (SAT), loop checking, calibration, commissioning, preventive maintenance, and reliability management are embedded as integral lifecycle phases. Worked examples demonstrate how zoning, alarm thresholds, and cause-and-effect matrices are translated into engineering drawings, material lists, and commissioning records. Calculation notes provide traceable evidence for compliance with international standards and project-specific criteria. Technical tables, inspection forms, commissioning sheets, and maintenance registers strengthen project execution and lifecycle assurance. Construction guidance emphasizes installation tolerances, hazardous-area compliance, concealed-work documentation, and inspection checkpoints. Commissioning chapters embed structured turnover dossiers, energization readiness, and reliability indicators. Maintenance readiness is reinforced through inspection frequencies, replacement criteria, and preventive-maintenance scheduling. Sector application matrices contextualize fire alarm and gas detection practices across diverse industries. Each matrix highlights environmental conditions, process hazards, regulatory requirements, and reliability drivers that influence system design, installation, and maintenance. By combining structured methodology, technical rigor, and lifecycle governance, the Fire Alarm and Gas Detection System Handbook delivers a professional, auditable, and field-usable reference. It equips engineers, inspectors, and project teams with a clear roadmap for standardized, traceable, and maintainable fire alarm and gas detection systems that support safe, reliable, and compliant infrastructure performance across industrial environments.

Rp499.000
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Electrical

GROUNDING CALCULATION

The Grounding Calculation Handbook presents a comprehensive engineering methodology for grounding and bonding systems from design basis through operation. It integrates soil resistivity measurement and modeling, grounding architecture, system grounding, AC substation grids, conductor thermal sizing, ground resistance, rods and deep electrodes, touch and step voltage, fault-current split and decrement factors, GIS, generation and industrial plant applications, lightning interfaces, EMC, instrumentation and cable bonding. Coverage extends to neutral grounding resistors, transformer and equipment grounding, offshore and marine facilities, tank farms, hazardous areas, cathodic-protection interfaces, renewable-energy systems, and data centers. The handbook emphasizes that low grounding resistance alone does not prove personnel safety. Touch and step performance, transferred potentials, fault-clearing time, bonding integrity, and field verification must all be addressed. Likewise, calculations cannot compensate for poor joints, inadequate burial, missing bonds, or undocumented field changes. Worked examples use transparent equations and clearly stated assumptions, ensuring traceability and compliance with international standards. Construction chapters cover materials, corrosion engineering, fabrication, shipping, installation, heavy-equipment interfaces, inspection and test plans (ITPs), commissioning, and maintenance. Calculation workflows are supported by integrated case studies that demonstrate how design assumptions translate into field execution. Supporting materials include technical tables, material specifications, procurement controls, inspection records, commissioning forms, maintenance frequencies, industry-application matrices, and technical visualizations. Templates for inspection records, commissioning sheets, and reliability procedures ensure auditable documentation. Sector application matrices contextualize grounding practices across oil & gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine works. Each sector is mapped to environmental conditions, process hazards, corrosion risks, and reliability drivers that influence grounding design and maintenance. By combining structured methodology, technical rigor, and lifecycle governance, the Grounding Calculation Handbook delivers a professional, auditable, and field-usable reference. It equips engineers, inspectors, and project teams with a clear roadmap for standardized, traceable, and maintainable grounding systems that support safe, reliable, and compliant electrical infrastructure across diverse industrial environments.

Rp499.000
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Electrical

LIGHTNING PROTECTION CALCULATION

The Lightning Protection Calculation Handbook presents an integrated methodology for lightning protection engineering and calculation. The external system is addressed through risk assessment, lightning protection level selection, rolling-sphere, protective-angle, and mesh methods. Air-termination design, down-conductor routing, earth-termination calculation, bonding, and separation distance are explained with structured calculation notes and worked examples. Internal protection is covered through lightning protection zones, cable/interface control, and coordinated surge protective devices (SPDs). Calculation notes include simplified equations for dangerous-event frequency, equivalent exposure, earth electrode resistance, Wenner soil resistivity, separation distance, impulse voltage, and energy checks. Worked examples demonstrate how calculation assumptions are transformed into drawings, material quantities, and traceable engineering records. The handbook does not reproduce proprietary standard text; instead, users are directed to project-adopted codes for exact parameters, coefficients, and mandatory minimum dimensions. Construction chapters cover material specification, fabrication, receiving inspection, waterproofing interfaces, routing, excavation, heavy-equipment access, QA/QC procedures, inspection and test plans (ITPs), testing, commissioning, and turnover. Maintenance chapters provide preventive inspection logic, post-strike checks, SPD replacement strategies, and reliability records to ensure long-term performance. Sector application matrices contextualize lightning protection practices across oil & gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine facilities. Each sector is mapped to environmental conditions, process hazards, corrosion risks, and reliability drivers that influence design and maintenance. By combining structured methodology, technical rigor, and lifecycle governance, the Lightning Protection Calculation Handbook delivers a professional, auditable, and field-usable reference. It equips engineers, inspectors, and project managers with a clear roadmap for standardized, traceable, and maintainable lightning protection calculations. The result is a calculation-centered engineering handbook designed to support consistent multidisciplinary decisions, improve constructability, reduce missing interfaces, and provide auditable evidence from design basis through long-term maintenance.

Rp499.000
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Electrical

EARTHING LAYOUT

The Earthing Layout Handbook presents a comprehensive engineering methodology for the design and implementation of industrial earthing systems. Its technical objective is to establish a continuous, low-impedance, and maintainable equipotential network capable of safely conducting fault, lightning, and transient currents while limiting hazardous touch, step, and transferred potentials. The methodology integrates soil resistivity characterization, current-path modeling, grounding-grid geometry, electrode selection, conductor thermal capacity, equipment bonding, surface-layer treatment, corrosion engineering, construction controls, and verification testing. Each element is contextualized with calculation notes, worked examples, and traceable acceptance criteria to ensure compliance with international standards and project-specific requirements. The handbook addresses equipment and material requirements from design through fabrication, shipping, installation, and construction with heavy equipment. Testing, commissioning, and long-term maintenance are embedded as lifecycle phases. Supporting materials include representative calculation notes, technical tables, material specifications, procurement controls, inspection and test plans (ITPs), inspection forms, field-release records, commissioning sheets, reliability procedures, and sector-specific application matrices. Applications span oil and gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore facilities, infrastructure, and marine works. Sector matrices highlight environmental conditions, process hazards, corrosion risks, and reliability drivers that influence earthing design and maintenance. Special attention is given to hazardous areas, static bonding, cable sheaths and screens, lightning-protection interfaces, substation touch and step voltages, corrosion and cathodic-protection interfaces, and concealed-work quality assurance. Construction guidance emphasizes installation tolerances, concealed-work documentation, corrosion compatibility, and inspection checkpoints. Commissioning chapters embed structured turnover dossiers, energization readiness, and reliability indicators. By combining structured methodology, technical rigor, and lifecycle governance, the Earthing Layout Handbook delivers a professional, auditable, and field-usable reference. It equips engineers, inspectors, and project teams with a clear roadmap for standardized, traceable, and maintainable earthing layouts that support safe, reliable, and compliant electrical infrastructure across diverse industrial environments.

Rp499.000
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Electrical

LIGHTNING PROTECTION DRAWING

The Lightning Protection Drawing Handbook Version 1.0 provides a comprehensive framework for producing technically defensible lightning protection drawings and supporting engineering records. It is designed to serve engineers, designers, inspectors, and project managers across oil & gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, and infrastructure/marine sectors. Coverage includes lightning parameters, risk assessment and selection, air-termination systems, down conductors, earthing arrangements, bonding practices, and surge protection. Industrial applications are contextualized with material specifications, construction methods, inspection and test plans (ITPs), commissioning procedures, maintenance practices, and as-built closeout requirements. Each chapter integrates calculation notes, engineering tables, checklists, and forms to ensure that drawing packages are traceable from design through long-term operation. Worked examples illustrate practical engineering applications such as risk-level determination, conductor sizing, earthing resistance verification, surge arrester coordination, and bonding continuity checks. Calculation notes provide traceable evidence for compliance with international standards and project-specific criteria. Technical tables and checklists strengthen design review, procurement clarity, and construction quality assurance. Procurement and vendor-document controls emphasize datasheet consistency, deviation management, and inspection evidence. Construction readiness is supported by installation tolerances, concealed-work documentation, corrosion protection, and inspection checkpoints. Commissioning chapters embed structured turnover dossiers, energization readiness, and reliability indicators. Maintenance readiness is reinforced through inspection frequencies, replacement criteria, and lifecycle documentation. Sector application matrices highlight environmental conditions, process hazards, corrosion risks, and reliability drivers that influence lightning protection design and maintenance. Offshore and marine projects emphasize salt-laden atmospheres and mechanical robustness, while mining and chemical facilities require enhanced fire and explosion risk mitigation. By combining structured methodology, technical rigor, and lifecycle governance, the Lightning Protection Drawing Handbook delivers a professional, auditable, and field-usable reference. It equips project teams with a clear roadmap for standardized, traceable, and maintainable lightning protection drawings that support safe, reliable, and compliant infrastructure performance across diverse industrial environments.

Rp499.000
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Electrical

LIGHTING PANEL SCHEDULE

The Lighting Panel Schedule Handbook provides a comprehensive engineering reference for the preparation and lifecycle control of low-voltage lighting panel schedules. It integrates calculation methods, equipment selection principles, material specifications, documentation requirements, inspection controls, and maintenance practices into one unified workflow that supports engineering offices, procurement teams, construction sites, and operations. Coverage includes connected and demand load calculations, phase balancing, neutral loading, voltage drop, short-circuit duty, protective device coordination, residual-current protection, busbar and earthing arrangements, environmental enclosure selection, lighting control interfaces, emergency systems, hazardous areas, outdoor/marine applications, and industrial-sector adaptations. Each technical subject is supported by calculation notes, worked examples, and verification procedures to ensure traceability, compliance, and constructability. The handbook emphasizes procurement and fabrication readiness, including datasheet consistency, deviation control, vendor-document registers, and inspection and test plan (ITP) checkpoints. Factory acceptance testing (FAT), preservation, installation, cable termination, testing, commissioning, and reliability maintenance are embedded as integral lifecycle phases. Worked examples illustrate practical engineering applications such as demand load calculation, voltage-drop verification, protective device coordination, and residual-current device selection. Technical tables provide structured references for acceptance criteria, inspection points, and commissioning checks. Templates for inspection records, commissioning forms, and maintenance registers ensure auditable documentation and reliable handover. Sector application matrices contextualize lighting panel schedule practices across oil & gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine projects. Each sector is mapped to environmental conditions, process hazards, corrosion risks, and reliability drivers that influence final project specifications. Unique features include three-dimensional engineering schematics, technical flow diagrams, and field-style visualizations that bridge design documentation with site execution. These visual aids enable engineers, inspectors, and operators to validate installations against approved criteria and ensure compliance with safety and performance standards. By combining structured methodology, technical rigor, and lifecycle governance, the Lighting Panel Schedule Handbook delivers a professional, auditable, and field-usable reference. It equips project teams with a clear roadmap for standardized, traceable, constructible, testable, and maintainable lighting panel schedules that support safe, reliable, and efficient electrical infrastructure performance across diverse industrial environments.

Rp499.000
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Electrical

LIGHTING LAYOUT

The Lighting Layout Handbook Version 1.0 provides a structured reference for industrial lighting engineering, integrating photometry, human visual requirements, codes and standards, hazardous-area compliance, luminaire technology, and BIM coordination. It addresses indoor and outdoor applications, roadway and process-plant lighting, emergency systems, power distribution, and controls, ensuring that lighting layouts meet both safety and performance objectives. Core technical subjects include tray sizing, utilization, support loading, thermal expansion, cable-pulling tension, sidewall pressure, ampacity derating, bend radius, bonding resistance, lifecycle risk, and inspection completion. Calculation notes and worked examples illustrate illuminance determination, uniformity checks, glare control, voltage-drop verification, and circuit loading. Technical tables provide structured references for luminaire performance, photometric data, and maintenance factors, enabling engineers to validate design assumptions with traceable evidence. Material specifications and procurement controls cover luminaire housings, lamps, drivers, supports, fittings, fasteners, bonding accessories, and protective coatings. Quality assurance is reinforced through inspection and test plans (ITPs), commissioning forms, and maintenance registers. Templates for design input checks, material lists, inspection records, and commissioning dossiers ensure traceability and compliance across the project lifecycle. Sector application matrices contextualize lighting layout practices across oil & gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, marine, and infrastructure projects. Each sector is mapped to environmental conditions, process hazards, corrosion risks, and reliability drivers that influence lighting design, installation, and maintenance. Unique features include three-dimensional engineering schematics and field-style visualizations that bridge design documentation with site execution. These visual elements enable engineers, inspectors, supervisors, and construction teams to validate installations against approved criteria, ensuring compliance with safety and performance standards. The engineering objective is to achieve safe, reliable, maintainable, and energy-efficient illumination while controlling glare, shadows, light spill, voltage drop, equipment temperature, environmental exposure, and whole-life cost. By combining structured methodology, technical rigor, and lifecycle governance, the Lighting Layout Handbook delivers a professional, auditable, and field-usable reference. It equips project teams with a clear roadmap for standardized, traceable, and maintainable lighting layouts that support long-term infrastructure performance across diverse industrial environments.

Rp499.000
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Electrical

LIGHTING ILLUMINATION LEVEL CALCULATION

The Lighting Illumination Level Calculation Handbook Version 1.0 presents a practical engineering methodology for determining, documenting, and verifying lighting performance in industrial and building projects. It explains fundamental photometric quantities, calculation criteria, lumen and point-by-point methods, room index, utilization and maintenance factors, calculation grids, uniformity, luminance, glare, and luminaire performance. Photometric data, electrical circuiting, hazardous-area considerations, emergency lighting, controls, installation, inspection, commissioning, and maintenance are integrated into a structured lifecycle framework. Calculation equations are combined with worked examples and engineering checks to ensure traceability and compliance. Technical tables provide structured references for illuminance levels, utilization factors, and maintenance multipliers. Material specifications, inspection and test plan (ITP) content, procurement controls, maintenance frequencies, sample field records, and industrial application matrices are embedded to support both engineering office work and site execution. Worked examples illustrate how room geometry, luminaire output, utilization factor, and maintenance factor influence average illuminance and uniformity. Calculation notes demonstrate verification of voltage drop, circuit loading, and emergency lighting autonomy. Templates for inspection records, commissioning forms, and maintenance registers ensure auditable documentation. The handbook emphasizes lifecycle integration: design development, fabrication, procurement, installation, inspection, commissioning, and operation. Construction guidance includes luminaire mounting, cable routing, firestopping, hazardous-area compliance, and control integration. Commissioning chapters embed structured turnover dossiers, energization readiness, and reliability indicators. Maintenance readiness is reinforced through inspection frequencies, replacement criteria, and preventive-maintenance scheduling. Sector application guidance contextualizes lighting practices across oil & gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, marine, and infrastructure projects. Each sector is mapped to environmental conditions, process hazards, regulatory constraints, and reliability drivers that influence lighting design and performance. By combining structured methodology, technical rigor, and lifecycle governance, the Lighting Illumination Level Calculation Handbook delivers a professional, auditable, and field-usable reference. It equips engineers, designers, inspectors, and project managers with a clear roadmap for safe, reliable, and maintainable lighting installations that meet performance and compliance requirements across diverse industrial environments.

Rp499.000
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Electrical

TECHNICAL BID EVALUATION CABLE

The Technical Bid Evaluation (TBE) for Electrical Cables Handbook presents a structured methodology for evaluating industrial electrical cable bids. It combines mandatory compliance gates with evidence-based weighted scoring, calculation verification, risk ranking, and controlled clarification. Technical requirements are translated into a compliance matrix linked to bidder documents, test reports, and calculations, ensuring that the final recommendation is auditable, consistent, and defensible. Core engineering topics include cable construction, conductor sizing, ampacity, voltage drop, short-circuit withstand, MV/HV systems, LV power, control and instrumentation, fire performance, LSZH requirements, armour and screen design, EMC considerations, accessories, drum logistics, vendor documentation, deviations, inspection and test plans (ITPs), surveillance, type/routine/special testing, installation, commissioning, and maintenance. Each subject is contextualized with calculation notes and verification procedures to ensure traceability. The handbook integrates design, fabrication, delivery, construction, and commissioning controls with practical forms for bid tabulation, datasheets, material lists, vendor document registers, ITPs, FAT records, field release, and maintenance frequency. Worked examples demonstrate how compliance scoring, voltage-drop verification, and short-circuit withstand calculations are applied to bidder submissions. Procurement alignment is reinforced through datasheet consistency, deviation management, and vendor-document expectations. Inspection and surveillance procedures ensure that factory and site testing meet contractual requirements. Commissioning readiness is supported by structured dossiers, energization checks, and reliability indicators. Sector-specific matrices highlight additional requirements for offshore, mining, chemical, power, and infrastructure applications. These matrices emphasize environmental, fire, mechanical, corrosion, EMC, and reliability drivers that influence bid evaluation outcomes. By combining structured methodology, technical rigor, and lifecycle governance, the Technical Bid Evaluation Handbook delivers a professional, auditable, and field-usable reference. It equips engineers, procurement specialists, and project managers with a clear roadmap for standardized, traceable, and defensible bid evaluations, ensuring that electrical cable selections meet project performance, safety, and reliability objectives across diverse industrial environments.

Rp499.000
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Electrical

VOLTAGE DROP IN CABLE

The Voltage Drop in Cable Handbook presents a complete engineering methodology for evaluating and controlling voltage drop in power cables used in industrial and infrastructure systems. It covers DC, single-phase AC, and three-phase AC equations, incorporating conductor resistance, reactance, temperature correction, and power factor effects. Cable material and construction are addressed alongside LV/MV feeders, motor starting, transformer and generator feeders, long runs, parallel cables, harmonics, thermal derating, and integrated cable sizing. The calculation framework is directly connected to EPC deliverables, including design criteria, calculation notes, cable schedules, material requisitions, vendor data review, inspection and test plans, installation checklists, commissioning forms, and preventive-maintenance records. Worked examples demonstrate how route length, current, impedance, power factor, and operating temperature influence terminal voltage and percentage drop. Lifecycle sections address design, fabrication, packing, transport, drum handling, cable pulling, support systems, terminations, testing, energization, periodic inspection, and reliability trending. Technical tables and checklists provide structured references for engineers, inspectors, and construction teams, ensuring traceability and compliance. Procurement and vendor alignment are reinforced through datasheet consistency, deviation control, and documentation requirements. Installation readiness is supported by routing layouts, segregation matrices, drum allocation, and logistics planning. Commissioning chapters embed structured turnover documentation, reliability indicators, and safety validation to ensure smooth energization. Maintenance readiness is integrated by defining inspection frequencies, replacement criteria, and reliability tracking. Preventive-maintenance records and digital monitoring ensure long-term reliability. Sector application matrices contextualize voltage-drop practices across oil & gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine facilities. Each sector is mapped to environmental conditions, process hazards, and reliability drivers that influence final project specifications. By combining structured methodology, technical rigor, and lifecycle governance, the Voltage Drop in Cable Handbook delivers a professional, auditable, and field-usable reference. It equips project teams with a clear roadmap for standardized, traceable, and maintainable voltage-drop calculations that support safe and reliable electrical infrastructure across diverse industrial environments.

Rp499.000
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Electrical

ELECTRICAL CABLE SPECIFICATION

The Electrical Cable Specification Handbook provides a comprehensive framework for specifying electrical cables in industrial and infrastructure projects. It addresses low-, medium-, high-, and extra-high-voltage power cables, as well as control, instrumentation, and communication cables. Coverage includes conductor, insulation, screen, sheath, and armour systems, together with fire performance, thermal rating, voltage drop, short-circuit duty, routing, underground installation, accessories, factory quality control, installation, testing, commissioning, maintenance, and sector-specific applications. The technical basis aligns with IEC and IEEE practices, while requiring project teams to verify the latest approved editions and contractual hierarchy. Calculation notes include feeder current, conductor resistance, voltage drop, current rating, short-circuit thermal withstand, charging current, bend radius, pulling tension, sidewall pressure, and reliability indicators. Worked examples illustrate engineering verification, ensuring traceability and compliance. Procurement and quality sections define datasheet requirements, quality assurance plans (QAP), inspection and test plan (ITP) controls, vendor-document expectations, material traceability, drum and shipping requirements, inspection records, and release documentation. These controls strengthen vendor alignment and ensure auditable evidence throughout the project lifecycle. Installation and commissioning practices are integrated, covering tray and ladder routing, segregation, trench and duct-bank requirements, heavy-equipment interfaces, moisture control, gland and termination workmanship, field testing, energisation readiness, as-built records, and maintenance baselines. Technical tables and checklists provide structured references for engineers, inspectors, and construction teams. Sector application guidance contextualizes cable specification practices across oil & gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine service. Each sector is mapped to environmental conditions, process hazards, corrosion risks, and reliability drivers that influence final project specifications. By combining structured methodology, technical rigor, and lifecycle governance, the Electrical Cable Specification Handbook delivers a professional, auditable, and field-usable reference. It equips project teams with a clear roadmap for standardized, traceable, constructible, testable, and maintainable cable systems that support safe and reliable electrical infrastructure across diverse industrial environments.

Rp499.000
Thumbnail for CONTROL STATION AND POWER OUTLET SPECIFICATION
Electrical

CONTROL STATION AND POWER OUTLET SPECIFICATION

The Control Station and Power Outlet Specification Handbook provides an integrated engineering framework for local control stations and industrial power outlets used in industrial and infrastructure facilities. It defines functional architecture, operator devices, emergency stop functions, local/remote and hand-off-auto control, enclosure selection, internal wiring, industrial plug-and-socket systems, overcurrent and residual-current protection, cable sizing, voltage drop, short-circuit verification, protective earthing, hazardous-area design, electromagnetic compatibility (EMC), surge protection, mechanical supports, corrosion control, and project documentation. Beyond design, the handbook establishes procurement and vendor-document controls, fabrication workmanship standards, inspection procedures, and factory acceptance testing (FAT). It also covers packing and preservation, construction installation, field inspection, pre-commissioning, commissioning, handover, and maintenance. Each lifecycle stage is supported by technical tables, checklists, material lists, inspection records, maintenance frequencies, inspection and test plan (ITP) examples, calculation notes, and engineering lifecycle diagrams. Worked examples illustrate practical engineering applications such as voltage-drop calculation, residual-current device coordination, enclosure thermal rating, earthing conductor sizing, and short-circuit withstand verification. Technical tables provide acceptance criteria for devices, wiring, and protective systems, ensuring traceability and compliance. Procurement chapters emphasize datasheet consistency, deviation control, and supplier documentation. Installation readiness is reinforced through cabling standards, plug-and-socket interface checks, mechanical support layouts, and fire-stopping practices. Commissioning procedures embed structured dossiers, turnover documentation, and reliability indicators to ensure safe energization and operational readiness. Maintenance readiness is defined by inspection frequencies, replacement criteria, and reliability tracking. Templates for inspection forms, commissioning records, and maintenance registers are included to support both engineering office work and site execution. Sector application matrices contextualize practices across oil & gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine projects. Each sector is mapped to environmental conditions, process hazards, corrosion risks, and reliability drivers that influence specification and maintenance. By combining structured methodology, technical rigor, and lifecycle governance, the Control Station and Power Outlet Specification Handbook delivers a professional, auditable, and field-usable reference for safe, reliable, and maintainable installations across diverse industrial environments.

Rp499.000
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Electrical

ELECTRICAL CABLE SCHEDULE

The Electrical Cable Schedule Handbook presents a comprehensive framework for producing and maintaining cable schedules as reliable engineering and project-control deliverables. Unlike a simple list of cable numbers, the schedule is treated as a data-centered lifecycle document that integrates engineering, procurement, construction, commissioning, and maintenance requirements. Coverage includes cable construction, standards, sizing, ampacity, voltage drop, short-circuit withstand, routing, segregation, three-dimensional model integration, drum optimization, accessories, procurement control, logistics, installation, inspection, testing, commissioning, maintenance, reliability, and as-built database management. Each technical chapter combines engineering theory with execution requirements to ensure traceability and compliance. Calculation notes provide worked examples for rated current, voltage drop, short-circuit withstand, drum optimization, and ampacity verification. Technical tables establish material controls, inspection points, acceptance criteria, commissioning checks, and maintenance frequencies. Templates for inspection forms, field-release records, commissioning dossiers, and maintenance registers are embedded to support both engineering office work and site execution. Procurement and vendor alignment are reinforced through datasheet consistency, deviation control, and documentation requirements. Construction readiness is supported by routing layouts, segregation matrices, drum allocation, and logistics planning. Commissioning chapters embed structured turnover documentation, reliability indicators, and safety validation to ensure smooth energization. Maintenance readiness is integrated by defining inspection frequencies, replacement criteria, and reliability tracking. Digital database control ensures that as-built schedules remain auditable, adaptable, and aligned with lifecycle asset management. Sector application matrices contextualize cable schedule practices across oil & gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine projects. Each sector is mapped to environmental conditions, process hazards, corrosion risks, and reliability drivers that influence final project specifications. By combining structured methodology, technical rigor, and lifecycle governance, the Electrical Cable Schedule Handbook delivers a professional, auditable, and field-usable reference. It equips project teams with a clear roadmap for standardized, traceable, constructible, testable, and maintainable cable schedules that support long-term electrical infrastructure performance.

Rp499.000
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Electrical

CABLE CONNECTION DIAGRAM AND SCHEMATIC DIAGRAM

The Cable Connection Diagram and Schematic Diagram Handbook provides a comprehensive engineering reference for the preparation, application, and lifecycle management of cable connection diagrams and schematic diagrams across power, control, instrumentation, safety, and auxiliary systems. It establishes drafting conventions, cable and accessory selection, typical connection arrangements, terminal engineering, calculations, material procurement, fabrication, installation, inspection, commissioning, and maintenance. Structured into 18 detailed chapters and six appendices, the handbook integrates technical tables, worked calculation examples, material lists, inspection and commissioning forms, maintenance frequencies, industrial application matrices, and lifecycle controls. Each chapter is supported by distinct three-dimensional engineering schematics and field-reference imagery, enhancing technical clarity and bridging design documentation with site execution. Core technical subjects include tray sizing, utilization, terminal engineering, cable-pulling tension, sidewall pressure, ampacity derating, bend radius, bonding resistance, lifecycle risk, and inspection completion. Worked examples illustrate practical applications such as voltage-drop calculation, relay coil burden verification, CT burden evaluation, battery capacity sizing, and timing error analysis. Calculation notes provide traceable verification for project-specific data. Material and procurement controls emphasize galvanized steel, stainless steel, aluminium, FRP, fittings, fasteners, bonding accessories, and protective coatings. Quality assurance is reinforced through inspection and test plans (ITPs), field inspection forms, release criteria, and commissioning records. Templates are provided for design input checks, material lists, calculations, inspection records, cable pulling procedures, commissioning forms, and maintenance registers. Sector application matrices contextualize practices for oil & gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine projects. Each sector is mapped to environmental conditions, process hazards, corrosion risks, and reliability drivers that influence diagram design and maintenance. By combining structured methodology, technical rigor, and lifecycle governance, the Cable Connection Diagram and Schematic Diagram Handbook delivers a professional, auditable, and field-usable reference. It equips engineers, designers, inspectors, and project managers with a clear roadmap for safe, reliable, and maintainable cable connection systems across diverse industrial environments.

Rp499.000
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Electrical

CABLE WAY LAYOUT

The Cable Way Layout Handbook provides a comprehensive reference for industrial cableway design and installation. It covers trays, ladders, trenches, underground duct banks, switchrooms, pipe racks, hazardous areas, power and instrument segregation, fiber optics, firestopping, structural supports, bonding, material selection, fittings, cable logistics, fabrication, installation, QA/QC, commissioning, and maintenance. The treatment is tailored for EPC projects where cableway layout must be coordinated across multiple disciplines and delivered with auditable calculations and inspection records. Core technical subjects include tray sizing, utilization, support loading, thermal expansion, cable-pulling tension, sidewall pressure, ampacity derating, bend radius, bonding resistance, lifecycle risk, and inspection completion. Worked examples illustrate engineering applications such as tray fill, tension limits, and derating factors, while calculation notes provide verification for project-specific data. Material and procurement controls address galvanized steel, stainless steel, aluminium, FRP, fittings, fasteners, bonding accessories, and protective coatings. Quality assurance is reinforced through inspection and test plans (ITPs), field inspection forms, release criteria, and commissioning records. Templates are provided for design input checks, material lists, calculations, inspection records, cable pulling procedures, commissioning forms, and maintenance registers. Application guidance is mapped across oil & gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine sectors. Each sector is contextualized with environmental conditions, process hazards, corrosion risks, and reliability drivers that influence cableway design and maintenance. Unique features include three-dimensional engineering visuals, technical flow diagrams, and field-reference photographs. These elements bridge design documentation with site execution, enabling engineers, inspectors, and construction teams to validate installations against approved criteria. By combining structured methodology, technical rigor, and lifecycle governance, the Cable Way Layout Handbook delivers a professional, auditable, and field-usable reference. It equips project teams with a clear roadmap for safe, reliable, and maintainable cableway systems that support long-term electrical infrastructure performance across diverse industrial environments.

Rp499.000
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Electrical

CABLE TRENCHES DESIGN

The Cable Trenches Design Handbook Version 1.0 provides a comprehensive methodology for engineering cable trench systems in industrial, utility, and infrastructure projects. It establishes design principles covering routing, geometry, cable segregation, thermal performance, reinforced-concrete design, covers, drainage, cable support systems, grounding and bonding, fire protection, hazardous-area construction, and crossings. Procurement, construction, cable pulling, quality inspection, commissioning, operation, and maintenance are integrated into the lifecycle framework. Calculation notes and worked examples demonstrate trench sizing, thermal rating, segregation rules, voltage drop, and pulling tension. Technical tables define material specifications, procurement controls, inspection and test plan (ITP) hold points, inspection forms, field-release criteria, commissioning records, and reliability procedures. These structured references ensure traceability, compliance, and constructability across multidisciplinary project execution. The handbook emphasizes that trench systems must be electrically safe, structurally adequate, thermally acceptable, drainable, fire-resilient, maintainable, inspectable, and adaptable to future cable additions. Civil and electrical requirements are verified together against approved project data and constructability constraints to achieve the final design. Sector-application matrices contextualize trench practices across oil & gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine environments. Each sector is mapped to environmental conditions, process hazards, corrosion risks, availability requirements, and regulatory constraints that influence trench design and maintenance. Unique features include three-dimensional engineering schematics, technical flow diagrams, and field-style visualizations that bridge design documentation with site execution. Appendices consolidate reusable templates for cable lists, segregation matrices, calculation notes, inspection records, commissioning forms, and maintenance registers. By combining structured methodology, technical rigor, and lifecycle governance, the Cable Trenches Design Handbook delivers a professional, auditable, and field-usable reference. It equips engineers, designers, inspectors, and project managers with a clear roadmap for safe, reliable, and adaptable trench systems that support long-term electrical infrastructure performance.

Rp499.000
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Electrical

DRY TRANSFORMER SPECIFICATION

The Dry Transformer Specification Handbook presents a comprehensive methodology for specifying dry-type transformers across industrial and infrastructure applications. It establishes requirements for electrical ratings, magnetic and winding design, insulation systems, cooling methods, enclosure protection, losses and efficiency, impedance, short-circuit withstand, harmonics, noise, terminations, monitoring, fire safety, seismic performance, materials, manufacturing, testing, procurement, transport, installation, commissioning, maintenance, and reliability. Calculation notes provide worked examples for rated current, per-unit impedance, short-circuit screening, loss/efficiency relationships, and transformer-room ventilation. Technical tables define material controls, inspection points, factory tests, acceptance criteria, commissioning checks, and maintenance frequencies. These structured references ensure traceability and compliance throughout the engineering lifecycle. Worked examples illustrate engineering verification, including impedance calculation, efficiency assessment, and ventilation sizing. Procurement chapters emphasize datasheet consistency, deviation control, and supplier documentation. Installation guidance covers cabling, terminations, enclosure placement, fire-stopping, and seismic supports. Commissioning procedures embed structured dossiers, turnover documentation, and reliability indicators to ensure safe energization. Maintenance readiness is reinforced through inspection frequencies, insulation monitoring, replacement criteria, and digital condition monitoring integration. Troubleshooting decision trees and reliability practices such as redundancy planning and risk-based inspection are included to minimize downtime and extend asset life. Sector application matrices contextualize transformer specification practices across oil & gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine facilities. Each sector is mapped to environmental conditions, operational hazards, and reliability drivers that influence final project specifications. Unique features of the handbook include technical flow diagrams, three-dimensional engineering schematics, and field-style visualizations that bridge design documentation with site execution. Appendices provide reusable templates for interface signal lists, I/O capacity calculations, cable and control-circuit calculations, material requisitions, inspection records, FAT/SAT forms, maintenance registers, and sector references. By combining structured methodology, technical rigor, and lifecycle governance, the Dry Transformer Specification Handbook delivers a professional, auditable, and field-usable reference. It equips project teams with a clear roadmap for safe, efficient, and reliable dry-type transformer installations across diverse industrial environments.

Rp499.000
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Electrical

ELECTRICAL INTERFACE TO DCS

The Industrial Electrical Systems–DCS Integration Handbook presents a structured engineering methodology for integrating electrical infrastructure with distributed control systems (DCS). It establishes interface philosophy, control authority, and signal classification, ensuring reliable communication between MCCs, switchgear, relays, transformers, generators, UPS/DC systems, drives, and supervisory platforms. Coverage includes metering, power quality monitoring, interposing relays, marshalling, industrial communications, IEC 61850 protocols, time synchronization, sequence-of-events recording, redundancy strategies, electromagnetic compatibility (EMC), grounding, cybersecurity, HMI design, and alarm management. Engineering databases, factory acceptance testing (FAT), site acceptance testing (SAT), installation, commissioning, and lifecycle maintenance are embedded as integral phases. Each chapter combines engineering theory with practical execution requirements. Technical tables identify typical signals, devices, and acceptance criteria. Calculation notes provide worked examples for spare I/O estimation, control-circuit voltage drop, relay coil burden, CT burden, battery capacity, network utilization, timing error, and availability. Material and procurement controls define supplier documentation, while inspection and test plans link design requirements to fabrication, FAT, installation, SAT, and commissioning. Maintenance tables define inspection frequencies, replacement criteria, and reliability records to sustain long-term operation. Appendices provide reusable templates for interface signal lists, I/O capacity calculations, cable and control-circuit calculations, material requisitions, inspection records, FAT/SAT forms, maintenance registers, sector application matrices, and references/acronyms. Unique features include structured workflows, technical flow diagrams, and three-dimensional schematics that bridge design documentation with site execution. These visual aids enable engineers, inspectors, and operators to validate installations against approved criteria. Applicable across oil & gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine sectors, the handbook delivers a professional, auditable, and field-usable reference. By combining structured methodology, technical rigor, and lifecycle governance, it equips project teams with a clear roadmap for safe integration, reliable operation, and compliant maintenance of industrial electrical systems within DCS environments.

Rp499.000
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Electrical

BUS DUCT CALCULATION SPECIFICATION

The Bus Duct Calculation Specification Handbook provides a comprehensive framework for the engineering, design, and lifecycle management of bus duct systems. It begins with fundamental theory and system types, then progresses through standards, current rating, thermal performance, voltage drop, power loss, short-circuit withstand, and insulation coordination. Conductor materials, enclosures, grounding, joints, tap-off units, and transformer/switchgear interfaces are addressed to ensure safe and reliable integration. Routing, structural supports, seismic considerations, expansion, fire stopping, and environmental conditions are incorporated into design criteria, supported by technical specifications and procurement guidelines. Fabrication, shipment, installation, inspection test plans (ITPs), commissioning, maintenance, reliability, troubleshooting, safety, and digital condition monitoring are treated as integral lifecycle phases. Worked examples demonstrate calculation methods for current rating, voltage drop, thermal rise, and short-circuit withstand. Technical tables and checklists provide structured references for engineers, while material lists, inspection records, field release forms, and commissioning forms ensure traceability and compliance. 3D engineering schematics, technical flow diagrams, and field-style visualizations clarify construction practices and enhance communication between design and site teams. The handbook emphasizes procurement alignment through datasheet consistency, deviation control, and vendor documentation. Installation readiness is reinforced with cabling standards, joint assembly procedures, and fire-stopping practices. Commissioning chapters embed structured turnover dossiers, reliability indicators, and safety validation, ensuring smooth startup. Maintenance readiness is defined by inspection frequencies, replacement criteria, and digital monitoring integration, enabling predictive reliability. Cross-industry application matrices contextualize bus duct practices for oil & gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine sectors. Each sector is mapped to operational risks, environmental constraints, and reliability expectations. By combining theoretical rigor, practical calculation methods, and lifecycle governance, the Bus Duct Calculation Specification Handbook equips engineers and project teams with a clear, auditable roadmap. It bridges analytical models with field implementation, ensuring that bus duct systems remain safe, efficient, and resilient across diverse industrial environments.

Rp499.000
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Electrical

ANNOUNCIATOR PANEL

The Annunciator Panel Specification Handbook defines a practical engineering framework for the specification, calculation, design, procurement, manufacture, testing, installation, commissioning, and maintenance of annunciator systems. It consolidates requirements for hardwired relay panels, intelligent annunciator modules, and PLC-based implementations, ensuring compatibility with distributed control systems (DCS), supervisory control and data acquisition (SCADA), emergency shutdown (ESD), and sequence-of-events (SOE) recording systems. The handbook emphasizes measurable and auditable requirements, including input/output channel definition, lamp and audible device performance, relay logic integrity, communication protocols, diagnostic capabilities, fail-safe states, and environmental ratings. Each chapter integrates calculation notes, dimensional tolerances, wiring schematics, installation practices, inspection checkpoints, and lifecycle reliability criteria. Worked examples illustrate engineering applications such as lamp load calculation, relay contact rating verification, audible device sound pressure evaluation, redundancy assessment, and SOE time-stamp accuracy. Technical tables connect fundamental equations to project decisions, ensuring transparency and traceability in design and acceptance. Procurement and vendor alignment are reinforced through datasheet consistency, deviation control, inspection evidence, and documentation requirements. Construction readiness is supported by installation material specifications, cabling standards, junction box layouts, and panel integration guidelines. Commissioning chapters embed structured dossiers, turnover documentation, and reliability indicators, ensuring safe and efficient startup. Maintenance readiness is integrated by defining inspection frequencies, replacement criteria, and reliability tracking. Sector application matrices provide tailored practices across oil & gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, and infrastructure projects. By combining structured methodology, technical rigor, and lifecycle governance, the Annunciator Panel Specification Handbook delivers a practical, auditable, and field-usable reference. It strengthens design quality, supports vendor alignment, ensures construction readiness, enables safe commissioning, and establishes a credible baseline for long-term reliability of annunciator systems across diverse industrial environments.

Rp499.000
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Electrical

VOLTAGE DROP & LOAD FLOW STUDY

The Voltage Drop & Load Flow Study Handbook provides a practical framework for voltage-drop calculation and steady-state load-flow analysis in industrial and commercial power systems. It begins with simple engineering formulas and progresses toward full network solutions, ensuring that both fundamental and advanced methodologies are accessible to engineers and project teams. Core topics include model inputs, load classification, conductor impedance, transformer and source representation, motor loads, reactive-power compensation, numerical solution methods, operating scenarios, voltage-profile assessment, cable and bus-duct interfaces, nonlinear-load coordination, model validation, commissioning, and lifecycle maintenance. Radial voltage drop is evaluated using conductor resistance and reactance, current, length, and power factor. Load-flow analysis represents the network using bus voltages, power injections, and branch admittances, then solves active/reactive power balance with iterative methods such as Newton-Raphson. Results are checked for bus voltage, branch loading, transformer loading, reactive limits, and system losses. Worked examples demonstrate how voltage-drop calculations and load-flow solutions are applied to radial feeders, transformer systems, and mixed industrial loads. Calculation notes, technical tables, and checklists provide engineers with structured tools to validate assumptions and ensure compliance with project criteria. The handbook also treats the study as an EPC deliverable. Vendor data, procurement deviations, factory information, field routing, construction changes, and commissioning measurements are incorporated into the final model. Supporting materials include inspection and test plans (ITPs), field release records, commissioning forms, maintenance frequencies, and reliability procedures, ensuring that the study remains connected to the installed asset throughout its lifecycle. Sector applications span oil and gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine facilities. Each sector is contextualized with specific operational risks and constraints, ensuring broad applicability. By combining theoretical rigor, practical execution guidance, and lifecycle governance, the handbook equips engineers and project teams with a clear roadmap for safe, reliable, and auditable voltage-drop and load-flow studies. It bridges analytical models with field implementation, ensuring that industrial power systems remain resilient and efficient under diverse operating conditions.

Rp499.000
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Electrical

LOAD SHEDDING STUDY

The Load Shedding Study Handbook provides a structured methodology for determining how electrical power systems should respond when generation becomes insufficient, voltage collapses, networks split into islands, or other disturbances threaten stability. The study integrates steady-state power-flow data, dynamic models, generator and governor response, motor behavior, protection functions, breaker operating times, communication performance, and process-load priorities. The outcome is a coordinated framework of detection criteria, shedding stages, trip matrices, time delays, restoration rules, and commissioning tests. The engineering objective extends beyond simply disconnecting load. The goal is to maintain acceptable frequency and voltage trajectories, avoid generator or motor instability, preserve essential auxiliaries, protect process safety, minimize unnecessary production loss, and enable orderly restoration. Fast load-shedding schemes may use measured power mismatch and breaker status to issue near-immediate trips, while conventional under-frequency load shedding (UFLS) and under-voltage load shedding (UVLS) provide staged backup based on threshold criteria. Calculation relationships are presented for active-power deficit, inertia-based frequency response, shedding efficiency, reserve margin, restoration ramp, and reliability. Practical model-validation criteria and representative cause-and-effect logic are included to ensure analytical rigor. The handbook also addresses protection interfaces, IEC 61850 communication dependencies, testing practices, and maintenance procedures. Worked examples demonstrate how detection criteria and shedding stages are applied under different system conditions, including generator trips, islanding events, and voltage collapse scenarios. Supporting materials include technical tables, checklists, QA/QC points, inspection records, commissioning forms, and maintenance matrices. Sector applications span oil and gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine installations. Each sector is contextualized with specific operational risks and constraints, ensuring broad applicability. By combining theoretical analysis, practical execution guidance, and lifecycle governance, the handbook equips engineers and project teams with a clear roadmap for safe, reliable, and auditable load-shedding schemes. It bridges analytical models with field implementation, ensuring that industrial power systems remain resilient under severe disturbances.

Rp499.000
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Electrical

PROTECTIVE RELAY COORDINATION STUDY

The Protective Relay Coordination Study Handbook presents a comprehensive framework for conducting relay coordination studies in industrial, utility, and infrastructure power systems. It begins by defining protection objectives and zones, validating the network model and instrument-transformer data, and establishing consistent fault scenarios. Relay pickup, reach, and time settings are then developed using equipment withstand ratings, minimum and maximum fault currents, operating modes, and selectivity margins to ensure reliable system protection. Major protection functions addressed include phase and earth overcurrent, directional overcurrent, transformer differential and restricted earth fault, generator and motor protection, busbar differential, feeder and cable protection, distance protection, and breaker-failure logic. The handbook also incorporates IEC 61850 communication protocols, GOOSE/SV dependencies, secondary injection testing, commissioning procedures, maintenance practices, reliability considerations, FAT/SAT requirements, procurement control, field inspection, settings management, and change control. Worked examples are presented using transparent equations and calculation-note structures rather than vendor-specific software outputs. This approach allows engineers to understand the underlying logic and verify what software tools should be proving. Practical appendices provide setting sheets, study input checklists, inspection and test plan (ITP) records, field release documentation, commissioning forms, maintenance matrices, procurement and vendor-data review controls, and an industrial-sector application matrix. The handbook emphasizes lifecycle governance, ensuring that relay coordination studies are not only technically rigorous but also auditable and maintainable. By combining theoretical analysis with practical execution guidance, it equips engineers and project teams to deliver safe, reliable, and compliant protection systems across diverse industrial sectors. Applications span oil and gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine facilities. Each sector is contextualized with specific operational risks and regulatory requirements, ensuring broad applicability. Ultimately, the handbook provides a structured roadmap for achieving selective, dependable, and verifiable protective relay coordination, bridging analytical models with field implementation to enhance system resilience and operational safety.

Rp499.000
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Electrical

RE-ACCELERATION MOTOR STUDY

The Re-Acceleration Motor Study Handbook presents a complete methodology for analyzing induction motor behavior following transient loss or depression of supply voltage. It defines engineering criteria to determine whether motors should remain connected, drop out, reclose automatically, or restart in a staged sequence, while verifying that the power system can sustain the resulting current and reactive-power demand without compromising bus voltage or source frequency. The methodology integrates steady-state load flow, short-circuit strength, dynamic voltage recovery, induction-motor torque-speed characteristics, residual speed, and mechanical inertia. It also evaluates protection and contactor dropout behavior, control logic, generator or utility response, thermal restart limits, and process criticality. Data quality assurance, uncertainty management, model validation, scenario planning, engineering acceptance criteria, and documentation controls are embedded to ensure analytical rigor and traceability. Execution guidance extends beyond analytical modeling into practical project workflows. Material specification, procurement control, vendor document review, FAT, panel fabrication, shipping, installation, construction, cable and loop checks, pre-commissioning, commissioning, inspection, and maintenance are comprehensively addressed. This lifecycle approach ensures that re-acceleration studies are not only technically accurate but also practically implementable in EPC projects and operational facilities. Worked examples illustrate motor re-acceleration under varying system strengths, residual speeds, and voltage recovery profiles. Technical tables, calculation notes, checklists, and QA/QC points provide engineers with structured tools to validate assumptions and ensure compliance. The handbook emphasizes balancing analytical precision with operational reliability, ensuring motors can restart safely without jeopardizing system stability. Sector applications include oil and gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine facilities. Each sector is contextualized with specific risk profiles and operational constraints, ensuring broad applicability across industrial environments. By combining structured methodology, technical rigor, and lifecycle execution guidance, the handbook equips project teams with a clear roadmap for safe, reliable, and auditable motor re-acceleration studies. It bridges theoretical analysis with field implementation, ensuring that industrial power systems remain resilient under transient voltage events.

Rp499.000
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Electrical

MOTOR STARTING STUDY

The Motor-Starting Study Handbook is prepared as an engineering training and practice reference for analyzing motor-starting phenomena and supporting EPC activities. It does not replace project-specific design criteria, governing laws, utility requirements, manufacturer instructions, hazardous-area requirements, or the professional judgment of the responsible engineer. All calculations, acceptance limits, examples, equipment ratings, maintenance frequencies, and forms are illustrative unless expressly adopted by a project. Before application in design, procurement, construction, commissioning, or operation, engineers must verify the latest applicable codes and standards, approved project documents, equipment nameplates, certified vendor data, system operating configuration, and site conditions. This ensures that motor-starting studies remain aligned with regulatory compliance and project-specific requirements. Motor starting is inherently a system-level transient phenomenon. Incorrect assumptions regarding source strength, transformer impedance, generator dynamics, cable data, motor locked-rotor characteristics, mechanical load torque, inertia, starter settings, or protection can produce unsafe conclusions. The handbook emphasizes that independent technical checking is required for critical equipment and for any case where voltage dip, acceleration time, protection margin, or generator response approaches acceptance limits. The methodology integrates analytical models with practical execution guidance. It covers calculation frameworks for voltage dip, acceleration torque, and current demand, while embedding data-quality controls, scenario management, and engineering acceptance criteria. Worked examples illustrate motor-starting behavior under varying system strengths, generator configurations, and load conditions. Execution guidance extends into procurement control, vendor document review, FAT, panel fabrication, shipping, installation, cable and loop checks, pre-commissioning, commissioning, inspection, and maintenance. Supporting materials include technical tables, checklists, QA/QC points, and inspection records, ensuring traceability and compliance. Sector applications span oil & gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine facilities. Each sector is contextualized with specific operational risks and constraints, ensuring broad applicability. By combining structured methodology, technical rigor, and lifecycle execution guidance, the handbook equips engineers and project teams with a clear roadmap for safe, reliable, and auditable motor-starting studies.

Rp499.000
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Electrical

SHORT CIRCUIT CALCULATION

The Short-Circuit Study Handbook presents a structured methodology for analyzing low-, medium-, and high-voltage industrial power systems. It provides engineers with a comprehensive framework to evaluate fault conditions, equipment duty, and system resilience under both balanced and unbalanced scenarios. Core topics include source equivalents, per-unit calculations, transformer and conductor impedance, rotating-machine contributions, and sequence networks. The study addresses maximum and minimum fault cases, peak asymmetrical current, breaker duty, switchgear withstand ratings, and protection interfaces. By integrating these parameters, the handbook ensures that short-circuit studies deliver accurate results for system safety and equipment reliability. Separate chapters summarize IEC 60909 and ANSI/IEEE approaches, offering comparative insights without reproducing proprietary standard text. Worked examples demonstrate hand-check methods for utility-fed buses, transformer systems, low-voltage switchboards, motor contributions, ground faults, parallel transformers, remote-end minimum faults, peak current, and equipment duty. These examples provide practical validation tools for engineers to cross-check software outputs and confirm compliance with design criteria. The final chapters and appendices extend beyond calculations into practical engineering controls. Material specifications, vendor-data review, calculation worksheets, inspection and test plans (ITPs), inspection records, field release documentation, commissioning forms, maintenance frequencies, and change-management procedures are comprehensively addressed. Industrial application matrices contextualize the methodology for oil & gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine facilities. Unique features include structured calculation notes, technical tables, and sector-specific guidance, ensuring applicability across diverse environments. The handbook emphasizes lifecycle governance, from design through commissioning and maintenance, reinforcing traceability and reliability. By combining theoretical rigor, practical examples, and procedural controls, the handbook equips project teams with a clear roadmap for safe, reliable, and auditable short-circuit studies. It bridges analytical models with field execution, ensuring that industrial power systems remain resilient under fault conditions and that protective devices operate within defined limits.

Rp499.000
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Electrical

ELECTRICAL LOAD DATA CALCULATION

The Electrical Load Data Calculation Handbook establishes a complete methodology for preparing, validating, and applying electrical load data in industrial and infrastructure facilities. It integrates AC and DC loads, motors, static loads, package equipment, transformers, UPS systems, battery chargers, HVAC, lighting, heat tracing, receptacles, process auxiliaries, and emergency consumers into a unified framework. Core equations for kW, kVA, kvar, power factor, efficiency, current, demand, diversity, utilization, coincidence, margin, and motor starting are combined with practical data-quality controls. The method distinguishes connected load from expected operating demand and design capacity, requiring separate scenarios for normal, essential, emergency, black-start, maintenance, and contingency conditions. This ensures that load data reflects both operational reality and design intent. Interfaces with transformer, generator, switchgear, cable, feeder, MCC, UPS, and distribution-panel sizing are addressed, while respecting the dedicated sizing calculations of those systems. More than 200 formatted pages provide calculation notes, worked examples, technical tables, checklists, procurement controls, ITP and inspection forms, commissioning records, and maintenance frequencies. Unique 3D engineering schematics and equipment-reference imagery are embedded to bridge analytical models with field installations. Chapters 13–18 include premium integrated 3D reference plates for capacity sizing, feeders/cables, calculation QA, procurement, commissioning/maintenance, and sector applications. These resources provide project teams with visual and procedural clarity, enhancing traceability and compliance. The handbook is designed as a master reference for EPC project execution and owner review. It supports engineers, inspectors, and managers in ensuring that electrical load data is accurate, auditable, and aligned with lifecycle governance. By combining structured equations, practical controls, and sector-specific guidance, it equips teams to deliver reliable electrical systems across oil & gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine environments. Ultimately, the consistent objective is a load-data methodology that is technically rigorous, operationally realistic, and maintainable throughout the project lifecycle.

Rp499.000
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Electrical

NEUTRAL EARTHING RESISTOR

The Neutral Earthing Resistor Handbook presents a comprehensive engineering approach to the design, application, and maintenance of Neutral Earthing Resistors (NERs) for medium-voltage and selected high-voltage systems. It integrates theoretical foundations with practical field guidance, ensuring that grounding systems are electrically effective, mechanically robust, inspectable, and verifiably safe. The handbook covers both low-resistance and high-resistance grounding, addressing system charging current, transient overvoltage, and the critical relationships between phase-to-neutral voltage and target ground-fault current. Core calculation methods are developed to support resistance selection, short-time energy evaluation, charging-current margins, relay sensitivity, and thermal sizing. Worked examples illustrate resistor dimensioning, cable and termination considerations, transport loads, and maintenance reliability, providing engineers with practical tools to validate design intent against field execution. Technical coverage extends to resistor technology, enclosure design, neutral connections, current transformers, protective relays, continuity monitoring, SCADA integration, and mechanical design. Procurement, fabrication, shipping, installation, commissioning, and troubleshooting are addressed with structured workflows, ensuring traceability and quality assurance. Supporting materials include technical tables, checklists, bill-of-material guidance, and inspection records, alongside ITP, FAT, and SAT forms that reinforce compliance and reliability. Application guidance spans oil & gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine environments. Each sector is contextualized with an industrial application matrix that highlights how process hazards, environmental conditions, and regulatory constraints influence grounding practice. The consistent objective is lifecycle governance: a grounding system that can be designed, procured, installed, tested, and maintained with auditable rigor. By combining calculation frameworks, engineering schematics, and field-oriented procedures, the handbook equips project teams with a clear roadmap for safe and reliable NER installations. It bridges design intent with operational reality, ensuring that neutral earthing systems not only meet technical criteria but also deliver long-term reliability and maintainability across diverse industrial sectors.

Rp499.000
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Electrical

DC POWER SUPPLY SYSTEM SPECIFICATION

The DC Power Supply System Specification Handbook defines a comprehensive reference for the design, installation, and lifecycle management of industrial DC power supply systems. It is applicable to process plants, power generation, utilities, mining, manufacturing, offshore facilities, and marine/infrastructure applications. The scope covers batteries, chargers/rectifiers, DC distribution boards, feeders, monitoring, protection, grounding philosophy, battery rooms, and interfaces with AC systems and automation networks. The technical methodology is based on duty-cycle analysis and minimum-voltage verification. Battery selection guidance includes technology type, ageing factors, temperature effects, and performance criteria. Charger sizing combines continuous DC load with battery recharge requirements, while cable sizing considers ampacity, voltage drop, and short-circuit withstand capability. Protection design checks maximum interruption duty and minimum fault current to ensure reliable operation. Lifecycle chapters extend the specification into material requirements, requisition and vendor-document controls, factory acceptance testing (FAT), inspection and test planning (ITP), receiving inspection, storage and preservation, installation with heavy-equipment handling, pre-commissioning, commissioning, and handover. Preventive maintenance and reliability records are emphasized to ensure long-term operational assurance. Appendices provide typical checklists, inspection forms, maintenance frequencies, and industrial-sector design variations. These resources enable project teams to adapt the specification to sector-specific risks, regulatory requirements, and owner standards while maintaining traceability and compliance. Unique features of the handbook include engineering lifecycle flows, calculation notes, worked examples, and technical workflows. These elements bridge the gap between design documentation and field execution, enabling engineers, inspectors, and operators to validate installations against approved criteria. The central principle is requirements traceability: every critical system feature must be linked to a design input, an acceptance criterion, and a record that demonstrates compliance. This approach improves safety, procurement clarity, construction quality, commissioning readiness, and lifecycle reliability. By combining structured methodology, technical rigor, and governance, the handbook delivers a professional, auditable, and field-usable reference. It equips project teams with a clear roadmap for safe, reliable, and maintainable DC power supply systems across diverse industrial environments.

Rp499.000
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Electrical

POWER DISTRIBUTION BOARD SPECIFICATION

The Power Distribution Board Specification Handbook provides a structured framework for the design, fabrication, installation, and lifecycle management of low-voltage distribution boards and related switchboard/panelboard assemblies used in industrial and infrastructure facilities. It establishes requirements for rated electrical characteristics, service conditions, assembly construction, internal separation, busbar systems, circuit-breaker selection, short-circuit withstand, metering and control, power quality, surge protection, earthing, internal wiring, materials, fabrication quality, and routine verification. Lifecycle chapters extend the specification into vendor document review, inspection and test planning, factory acceptance testing (FAT), packing and preservation, site receiving, heavy-equipment handling, installation, pre-commissioning, energization, and maintenance. Calculation pages provide representative equations and worked checks, while appendices supply templates for datasheets, material lists, ITPs, FAT records, commissioning records, maintenance schedules, and sector application matrices. The central principle is requirements traceability: every important board feature must be linked to a design input, an acceptance criterion, and a record that demonstrates compliance. This approach improves safety, procurement clarity, construction quality, commissioning readiness, and lifecycle reliability. Primary assembly requirements are based on the IEC 61439 series, latest project-applicable edition. Protective devices follow IEC 60947 series and coordinated project studies. Environmental protection is defined by IEC 60529 and IEC 62262 as applicable. Local PUIL/SNI codes, owner standards, and contract requirements take precedence where specified. Unique features of the handbook include technical workflows, three-dimensional schematics, and field reference photographs. These visual elements bridge the gap between design documentation and site execution, enabling engineers, inspectors, and operators to validate installations against approved criteria. The handbook is structured to serve as a training reference, project checklist, and engineering review aid. By combining structured methodology, technical rigor, and lifecycle governance, it equips project teams with a clear roadmap for safe, reliable, and maintainable distribution board installations across oil and gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine sectors.

Rp499.000
Thumbnail for POWER CAPACITOR CALCULATION AND SPECIFICATION
Electrical

POWER CAPACITOR CALCULATION AND SPECIFICATION

The Power Capacitor Calculation and Specification Handbook provides a comprehensive methodology for designing and specifying shunt capacitor systems across low-voltage and medium/high-voltage industrial networks. It establishes a structured framework that connects design philosophy, calculation methods, equipment specification, procurement, construction, commissioning, and lifecycle maintenance into a coherent reference. Coverage includes fixed capacitors, automatic power factor correction banks, detuned reactor banks, tuned harmonic filters, and the supporting switching, protection, discharge, enclosure, connection, and earthing systems. Each technical chapter integrates theoretical principles with practical engineering tools, including calculation notes, worked examples, material specifications, and sector-specific application matrices. Key calculation topics include power-factor correction sizing, capacitor current determination, voltage-dependent kVAR behavior, short-circuit MVA checks, resonance order screening, detuning frequency selection, filter resonance analysis, discharge resistance sizing, and ventilation airflow requirements. These calculations are supported by worked examples and calculation sheets to ensure accuracy and traceability. Procurement and lifecycle chapters address technical requisitions, vendor document review, inspection and test plans (ITPs), factory acceptance testing (FAT), site acceptance testing (SAT), shipping and storage, construction quality, commissioning readiness, preventive maintenance, reliability practices, and troubleshooting workflows. Special emphasis is placed on harmonics, resonance avoidance, and detuned filter design to ensure safe and reliable operation in modern industrial environments. Unique features of the handbook include technical workflows, three-dimensional schematics, and field reference photographs. These visual elements bridge the gap between design documentation and site execution, enabling engineers, inspectors, and operators to validate installations against approved criteria. The handbook is structured to serve as a training reference, project checklist, and engineering review aid. It supports engineering, procurement, construction, QA/QC, commissioning, and operations teams by reducing avoidable rework, strengthening quality evidence, and improving consistency between design documents and site execution. Applicable across oil and gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine sectors, the handbook delivers a professional, auditable, and field-usable reference. By combining structured methodology, technical rigor, and lifecycle governance, it equips project teams with a clear roadmap for safe, reliable, and maintainable capacitor installations.

Rp499.000
Thumbnail for GENERATOR CAPACITY CALCULATION AND SPECIFICATION
Electrical

GENERATOR CAPACITY CALCULATION AND SPECIFICATION

The Generator Capacity Calculation and Specification Handbook provides a comprehensive methodology for sizing and specifying industrial generator sets. It begins with steady-state requirements developed from a classified load list incorporating demand, diversity, and operating factors. These are validated against motor starting conditions, step-load acceptance, voltage and frequency transients, UPS/VFD harmonic content, short-circuit duty, environmental derating, redundancy, and future growth considerations. The handbook defines the minimum technical content required for generator datasheets and specifications. Coverage includes engine, alternator, AVR/excitation, governor, fuel systems, cooling, exhaust, starting systems, batteries, switchgear, automatic transfer switches (ATS), protection schemes, neutral/grounding, cables, ventilation, acoustics, fire safety, and package interfaces. Each section provides structured guidance to ensure consistency, traceability, and compliance with international standards. Worked examples and calculation notes demonstrate the selection of governing cases, enabling engineers to validate design intent against operational requirements. Procurement and lifecycle chapters address requisition, technical bid evaluation (TBE), vendor documentation, factory acceptance testing (FAT), preservation, transport, heavy-lift installation, field QA/QC, site acceptance testing (SAT), commissioning, preventive maintenance, reliability planning, and spare-parts management. Industrial application matrices highlight how environmental conditions, process hazards, availability requirements, and regulatory constraints modify generator specification practices across oil and gas, petrochemical, chemical, power plants, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine facilities. Unique features of the handbook include technical workflows, three-dimensional schematics, and field reference photographs. These visual elements bridge the gap between design documentation and site execution, enabling engineers, inspectors, and operators to validate installations against approved criteria. The handbook is designed as a professional, print-ready project reference rather than a vendor-specific manual. It functions as a training resource, project checklist, and engineering review aid. By combining structured methodology, technical rigor, and lifecycle governance, it equips project teams with a clear roadmap for safe, reliable, and maintainable generator installations across diverse industrial sectors.

Rp499.000
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Electrical

MOTOR SPECIFICATION AND DATA SHEET

The Motor Specification Handbook defines comprehensive requirements and standardized data-sheet practices for industrial motors across low-voltage, medium-voltage, fixed-speed, variable-speed, hazardous-area, horizontal, vertical, synchronous, and special-purpose applications. It establishes a unified framework that connects design intent, procurement, testing, commissioning, and lifecycle management into a coherent reference for engineering and operations teams. Coverage includes motor rating, efficiency, starting current, acceleration, torque, insulation, temperature rise, enclosure types, cooling methods, bearings, terminal boxes, VFD compatibility, and protection schemes. Inspection protocols, factory acceptance testing (FAT), site acceptance testing (SAT), commissioning procedures, maintenance strategies, repair practices, reliability indicators, and risk management are embedded to ensure traceability and compliance. Lifecycle documentation requirements are emphasized to strengthen quality evidence and operational assurance. Each chapter integrates theoretical principles with practical engineering tools, including calculation notes, worked examples, and material specifications. Completed example data sheets, technical bid evaluation forms, and calculation worksheets are provided to support procurement accuracy and vendor comparison. Troubleshooting decision trees and competency assessment guidelines are included to enhance field readiness and operational reliability. Special attention is given to hazardous-area motor specification, corrosion compatibility, enclosure integrity, and VFD interface requirements. Maintenance guidance highlights preventive maintenance frequencies, lubrication practices, bearing replacement intervals, and insulation monitoring. Reliability practices such as redundancy planning, risk-based inspection, and lifecycle cost analysis are emphasized to minimize downtime and extend asset life. Unique features of the handbook include engineering lifecycle flows, technical workflows, and controlled-document publication requirements. Appendices provide FAT and SAT records, oil and gas project philosophies, and adaptable forms suitable for project templates. These resources enable teams to tailor documentation to sector-specific standards while maintaining consistency and compliance. Applicable across oil and gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine sectors, the handbook delivers a professional, auditable, and field-usable reference. By combining structured methodology, technical rigor, and lifecycle governance, it equips project teams with a clear roadmap for safe, reliable, and maintainable motor installations.

Rp499.000
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Electrical

ONE LINE DIAGRAM AND POWER SYSTEM DESIGN

The One Line Diagram and Power System Design Handbook provides a lifecycle-oriented reference for the preparation, interpretation, and application of one-line diagrams in industrial power system design. It establishes a structured methodology that connects design philosophy, fundamental theory, equipment selection, procurement control, installation practices, and long-term maintenance into a coherent framework. Coverage includes design philosophy, theoretical foundations, engineering equations, and worked examples that illustrate practical applications. Equipment selection criteria are detailed for transformers, switchgear, MCCs, motors, drives, UPS, DC systems, batteries, cables, and earthing systems. Guidance is provided for lightning protection, lighting, small power, instrumentation and control interfaces, and hazardous-area installations. Material and procurement controls are embedded to ensure traceability, compliance, and lifecycle reliability. Inspection and test requirements are emphasized through inspection and test plans (ITPs), checklists, field-release records, and commissioning certificates. Commissioning practices highlight energization readiness, safety protocols, and documentation of acceptance criteria. Maintenance guidance includes preventive maintenance frequencies, reliability indicators, and troubleshooting workflows to support long-term operational assurance. Sector-specific applications demonstrate how one-line diagrams and design practices adapt to oil and gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine environments. Unique features of the handbook include technical workflows, three-dimensional engineering schematics, and actual equipment or field reference photographs. These visual elements bridge the gap between design documentation and site execution, enabling engineers, inspectors, and operators to validate installations against approved criteria. The handbook is structured to serve as a training reference, project checklist, and engineering review aid. By combining structured methodology, technical rigor, and lifecycle governance, it strengthens procurement accuracy, construction readiness, commissioning safety, and long-term system reliability. It equips project teams with a clear roadmap for consistent one-line diagram development and safe, reliable, and maintainable power system design across diverse industrial sectors.

Rp499.000
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Electrical

ANALYSIS OF ELECTRICAL POWER SYSTEM

The Analysis of Electrical Power System Handbook provides a comprehensive framework for the study and practical application of industrial and infrastructure electrical networks. It covers fundamental theory and advanced methodologies, beginning with load assessment, per-unit modeling, and extending through load flow, short-circuit analysis, transient and small-signal stability, voltage stability, and reactive compensation. Protection coordination, grounding, lightning protection, power quality, reliability, equipment rating, and renewable/BESS integration are also addressed, ensuring a holistic approach to system performance and resilience. Each chapter integrates technical theory with practical engineering tools, including fundamental formulas, calculation notes, worked examples, and equipment/material interfaces. QA/QC points, inspection and ITP topics, commissioning checks, and maintenance-frequency logic are embedded to ensure traceability and compliance. Sector-specific applications highlight how industrial environments such as oil and gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, and infrastructure/marine facilities adapt analytical methods to their unique risk profiles and regulatory constraints. Unique features include three-dimensional engineering schematics and actual field photographs placed alongside relevant topics. These visual elements bridge the gap between analytical models and the physical condition of equipment, enabling engineers, inspectors, and operators to validate theoretical results against real-world installations. The appendices provide calculation sheets, material-specification prompts, procurement controls, ITP/inspection forms, field-release records, commissioning records, maintenance and reliability procedures, an industrial-sector matrix, lifecycle logistics, a formula sheet, standards references, and a glossary. Together, these resources deliver a complete toolkit for project teams to ensure safe, reliable, and auditable electrical systems. The handbook is structured to serve as a training reference, project checklist, and engineering review aid. By combining structured methodology, technical rigor, and lifecycle governance, it strengthens procurement accuracy, construction readiness, commissioning safety, and long-term system reliability. It equips project teams with a clear roadmap for consistent analysis, safe operation, and maintainable electrical power systems across diverse industrial sectors.

Rp499.000
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Electrical

EQUIPMENT LAYOUT IN SUB STATION

The Equipment Layout in Substation Handbook provides an integrated methodology for arranging equipment in high-voltage and medium-voltage substations. It establishes a structured framework that connects site planning, electrical clearances, constructability, and operational reliability into a coherent design and installation process. The scope covers air-insulated switchgear (AIS), gas-insulated switchgear (GIS), hybrid, and modular configurations, ensuring adaptability across diverse project environments. Coverage includes site and plot planning, bus and bay arrangements, transformers, breakers, disconnectors, instrument transformers, surge arresters, auxiliary systems, control buildings, cable systems, earthing, lightning protection, fire protection, roads, civil foundations, drainage, security, logistics, installation, pre-commissioning, energization, maintenance, and digital-substation considerations. Each chapter integrates design principles with practical construction details, material specifications, inspection points, and commissioning records to ensure traceability and compliance. Special emphasis is placed on electrical clearances, accessibility, and safety. Guidance is provided for routing of busbars, positioning of transformers and breakers, and integration of auxiliary systems. Civil and structural interfaces such as foundations, drainage, and fire protection are addressed to ensure constructability and resilience. Digital-substation considerations, including IEC 61850 integration, monitoring, and control systems, are highlighted to support modern automation and reliability practices. Worked examples and calculation notes are included for clearance verification, earthing layouts, lightning current routing, and equipment spacing. Inspection and test plans (ITPs), field-release records, and commissioning certificates are embedded to support quality assurance and auditable acceptance. Preventive maintenance frequencies and reliability indicators provide operational assurance across the lifecycle. Unique features of the handbook include technical workflows, layout schematics, and field reference photographs. These visual elements bridge the gap between design documentation and site execution, enabling engineers, inspectors, and operators to validate installations against approved criteria. Applicable across power generation, transmission, distribution, industrial, and infrastructure projects, the handbook delivers a professional, auditable, and field-usable reference. By combining structured methodology, technical rigor, and lifecycle governance, it equips project teams with a clear roadmap for safe, reliable, and maintainable substation layouts.

Rp499.000
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Electrical

GENERAL POWER GENERATION AND SUB STATION

The General Power Generation and Substation Handbook Version 1.0 provides an integrated reference for the design, construction, commissioning, and maintenance of industrial power generation and substation systems. It establishes a comprehensive framework beginning with generation technology selection and thermodynamic design, extending through steam and gas turbine systems, generators, transformers, substations, switchgear, instrument transformers, protection systems, IEC 61850 integration, grounding, cabling, secure DC/UPS supply, and power quality management. The handbook emphasizes multidisciplinary interfaces, incorporating civil works, electrical engineering, instrumentation, protection, and HSE requirements. It provides structured guidance for procurement, fabrication support, construction sequencing, inspection, pre-commissioning, commissioning, and lifecycle maintenance. Practical acceptance criteria, inspection points, and commissioning records are embedded to ensure traceability, compliance, and auditable evidence across project phases. Technical chapters combine theoretical principles with practical engineering tools, including calculation notes, worked examples, material specifications, and sector-specific application matrices. Reliability practices such as redundancy planning, preventive maintenance frequencies, and risk-based inspection are highlighted to extend asset life and minimize downtime. Special attention is given to grounding continuity, lightning protection, power quality monitoring, and secure auxiliary supply systems to ensure operational resilience. Unique features of the handbook include technical workflows, three-dimensional engineering schematics, and actual equipment or field reference photographs. These visual elements bridge the gap between design documentation and site execution, enabling engineers, inspectors, and operators to validate installations against approved criteria. The document is structured to serve as a training reference, project checklist, and engineering review aid. It supports EPC contractors, utility operators, and industrial project teams in reducing rework, strengthening constructability, enhancing commissioning safety, and establishing a credible technical baseline for operations. Applicable across oil and gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine sectors, the handbook delivers a professional, auditable, and field-usable reference. By combining structured methodology, technical rigor, and lifecycle governance, it equips project teams with a clear roadmap for safe, reliable, and maintainable power generation and substation installations.

Rp499.000
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Electrical

ELECTRICAL COMMON INSTALLATION

The Electrical Common Installation Handbook Version 1.0 provides a comprehensive reference for engineering, procurement, fabrication support, construction, inspection, pre-commissioning, commissioning, and maintenance of common electrical installations across industrial and infrastructure facilities. It establishes a structured framework that connects design intent to verified field execution and reliable long-term operation. Coverage includes installation philosophy, codes and specifications, electrical safety, work packs, and material control. Technical content spans cable tray, ladder, conduit, and underground systems; power, control, and communication cabling; glands and terminations; switchgear, transformers, motors, UPS and battery systems, lighting, earthing, lightning protection, hazardous-area installations, firestopping, substations, temporary power, testing, and turnover. Worked examples address tray fill, voltage drop, cable pulling, motor current, neutral grounding resistor (NGR) sizing, battery autonomy, lighting calculations, earthing conductor sizing, and reliability metrics. Quality sections provide inspection and test plan (ITP) structures, receiving and installation checklists, field-release records, inspection forms, commissioning certificates, preventive-maintenance frequencies, and reliability indicators. These elements ensure traceability, compliance, and auditable evidence throughout the project lifecycle. An industrial-sector matrix highlights how environment, process hazard, corrosion, availability, and regulatory constraints modify installation practices across oil and gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine applications. This matrix enables project teams to adapt installation strategies to sector-specific risks and requirements. Unique features of the handbook include technical workflows, three-dimensional schematics, and field reference photographs. These visual elements bridge the gap between design documentation and site execution, supporting engineers, inspectors, and operators in validating installations against approved criteria. The handbook is structured to serve as a training reference, project checklist, and engineering review aid. By combining structured methodology, technical rigor, and lifecycle governance, it strengthens procurement accuracy, construction readiness, commissioning safety, and long-term system reliability. It equips project teams with a clear roadmap for safe, traceable, and maintainable electrical installations across diverse industrial environments.

Rp499.000
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Electrical

ELECTRICAL REQUIREMENT FOR PACKAGE EQUIPMENT

The Electrical Requirement for Package Equipment Handbook defines a comprehensive framework for the specification, design, installation, and lifecycle management of package equipment electrical systems across industrial sectors. It covers codes and standards, design criteria, load calculation, power distribution, transformers, switchgear, motor control centers (MCCs), variable frequency drives (VFDs), UPS, motors, cable systems, grounding and bonding, lightning protection, lighting, small power, instrumentation and control interfaces, hazardous-area equipment, junction boxes, wiring, inspection, testing, commissioning, fabrication, transportation, installation, maintenance, reliability, procurement, QA/QC, vendor documentation, and industrial applications. Each chapter integrates theoretical foundations with practical engineering tools, including calculation notes, worked examples, material specifications, engineering lifecycle flows, installation and field considerations, inspection checklists, commissioning acceptance criteria, maintenance frequencies, and record requirements. Appendices provide adaptable forms and templates that can be customized for project-specific procedures, ensuring traceability and compliance. Construction guidance emphasizes installation sequencing, equipment interfaces, cable routing, termination practices, and hazardous-area constructability. Inspection and test plans (ITPs), commissioning records, and preventive maintenance practices are embedded to support quality assurance and safe energization. Reliability practices such as redundancy planning, corrosion compatibility, and risk-based inspection are highlighted to extend asset life and minimize downtime. Unique features of the handbook include technical workflows, typical installation schematics, and field-oriented photographs. These visual elements bridge the gap between design documentation and site execution, enabling engineers, inspectors, and operators to validate installations against approved criteria. The handbook is structured to serve as a training reference, project checklist, and engineering review aid. It supports engineering, construction, QA/QC, commissioning, and operations teams by reducing avoidable rework, strengthening quality evidence, and improving consistency between engineering documents and site execution. Applicable across oil and gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine sectors, the handbook delivers a professional, auditable, and field-usable reference. By combining structured methodology, technical rigor, and lifecycle governance, it equips project teams with a clear roadmap for safe, reliable, and maintainable package equipment installations.

Rp499.000
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Electrical

DEDD FOR ELECTRICAL

The Electrical Construction Handbook presents an integrated guide for industrial electrical construction, designed to unify scope definition, document control, field planning, safety management, material preservation, and installation practices. Coverage extends across cable route installation, earthing and bonding, power and control cable installation, equipment setting, lighting and small power, hazardous-area construction, inspection, testing, energization, and turnover. The handbook is structured for EPC and industrial project environments where electrical construction must interface with civil, structural, mechanical, piping, instrumentation, telecom, fire and gas, HSE, QA/QC, vendor, and commissioning teams. It provides practical acceptance criteria, sample matrices, inspection points, and field-ready checklists that can be adapted to project-specific procedures. This ensures traceability, compliance, and consistency across multidisciplinary project execution. Special attention is given to high-risk areas such as Permit to Work systems, lockout/tagout protocols, arc-flash control, temporary power arrangements, hazardous-area equipment installation, cable pulling tension, gland and termination quality, earthing continuity, and pre-energization readiness. These elements are emphasized to protect personnel, ensure safe energization, and establish reliable system turnover. Each technical chapter integrates design principles with construction details, material control, inspection and test planning, calculation notes, worked examples, commissioning records, and maintenance practices. Field-oriented checklists and inspection points are embedded to support quality assurance and auditable acceptance. Unique features include technical workflows, typical installation schematics, and field reference photographs. These visual elements bridge the gap between design documentation and site execution, enabling engineers, supervisors, inspectors, and technicians to validate installations against approved criteria. The handbook functions as a training reference, project checklist, and engineering review aid. By combining structured methodology, technical rigor, and lifecycle governance, it strengthens procurement accuracy, construction readiness, commissioning safety, and long-term system reliability. Applicable across oil and gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine sectors, the handbook delivers a professional, auditable, and field-usable reference. It equips project teams with a clear roadmap for safe, traceable, maintainable, and commissioning-ready electrical installations.

Rp499.000
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Electrical

ELECTRICAL GENERAL SPECIFICATION

The General Specification for Industrial Electrical Systems Handbook defines a comprehensive framework for the design, installation, and lifecycle management of electrical infrastructure across industrial facilities. It establishes requirements from incoming supply and generation through high-, medium-, and low-voltage distribution, transformers, switchgear, motor control centers (MCCs), motors, drives, UPS, DC systems, batteries, cables, earthing, lightning protection, lighting, small power, heat tracing, monitoring, controls, and associated infrastructure. The handbook sets clear requirements for system studies, reliability analysis, hazardous-area applications, material specifications, and environmental protection. It emphasizes documentation, procurement, inspection, installation, testing, commissioning, operation, maintenance, and lifecycle closeout, ensuring that every stage of the project is auditable and compliant with international standards. By integrating design intent with field execution, it provides a consistent technical baseline that reduces rework, strengthens quality evidence, and supports safe, reliable, and maintainable electrical systems. Each technical chapter combines theoretical principles with practical engineering equations, calculation notes, worked examples, and sector-specific application matrices. Material controls, procurement guidelines, and logistics considerations are embedded to ensure traceability and compliance. Inspection and test plans (ITPs), commissioning forms, and maintenance frequencies provide operational assurance and lifecycle reliability. Unique features include three-dimensional engineering schematics, technical workflows, and actual equipment or field reference photographs. These visual elements bridge the gap between design documentation and site execution, enabling engineers, inspectors, and operators to validate installations against approved criteria. The structured format allows the handbook to function simultaneously as a training reference, project checklist, and engineering review aid. Applicable across oil and gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine sectors, the handbook delivers a professional, auditable, and field-usable reference. By combining structured methodology, technical rigor, and lifecycle governance, it equips project teams with a clear roadmap for safe installation, reliable operation, and compliant maintenance of industrial electrical systems.

Rp499.000
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Electrical

TYPICAL INSTALLATION DETAILS FOR EARTHING AND LIGHTNING WORK

The Typical Installation Details for Earthing and Lightning Work handbook is prepared as a field-oriented companion for engineers, supervisors, inspectors, technicians, and commissioning personnel who require a coherent reference from design basis through installation, testing, and maintenance. It emphasizes multidisciplinary interfaces that are often distributed across electrical, civil, structural, piping, instrumentation, and HSE documents, ensuring consistency and traceability throughout the project lifecycle. The content integrates design principles with typical construction details, material control, inspection and test planning, calculation notes, worked examples, commissioning records, and maintenance practices. Particular attention is given to accessibility of test points, equipotential bonding, corrosion compatibility, routing of lightning current, documentation of concealed work, and traceable acceptance criteria. These elements strengthen both safety and reliability by ensuring that installations are auditable and compliant with project standards. Construction guidance highlights installation tolerances, grounding layouts, lightning conductor routing, and bonding practices. Inspection and test plans (ITPs) are embedded with hold points, inspection forms, and field release protocols to ensure quality assurance. Commissioning records and preventive maintenance practices are included to support long-term operational reliability. Worked examples and calculation notes provide engineers with practical tools to verify design intent against field execution. Unique features of the handbook include technical workflows, typical installation schematics, and field-oriented photographs. These visual elements bridge the gap between design documentation and site execution, enabling practitioners to validate installations against approved criteria. Each chapter is organized to be independently usable in the field while still supporting a complete system view. Readers are encouraged to adapt examples to facility type, risk profile, jurisdiction, and owner standards. The preferred practice is to establish project criteria first, then verify procurement, construction, and testing against that approved basis. By combining structured methodology, technical rigor, and lifecycle governance, the handbook delivers a professional, auditable, and field-usable reference. It equips project teams with a clear roadmap for safe, reliable, and maintainable earthing and lightning installations across industrial sectors.

Rp499.000
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Electrical

INSTALLATION DETAILS FOR LIGHTING WORK

The Industrial Lighting Installation Handbook presents detailed practices for the engineering and construction of lighting systems across industrial facilities. It provides a unified technical framework that connects design intent to verified field installation and reliable operation throughout the asset lifecycle. Coverage includes luminaire and material selection, indoor and outdoor installation details, support systems, conduit and cable tray routing, wiring and controls, grounding, design calculations, inspection and testing, commissioning, and maintenance. Technical chapters integrate illuminance calculations, loading and voltage-drop checks, material specifications, procurement controls, installation tolerances, and work-at-height considerations. Inspection and test plan (ITP) hold points, inspection forms, field release protocols, commissioning records, preventive maintenance frequencies, and troubleshooting methods are embedded to ensure traceability and compliance. Sector-specific application guidance is provided, with appendices suitable for adaptation into project forms, enabling teams to tailor documentation to project-specific requirements. Construction guidance emphasizes installation sequencing, luminaire mounting, conduit routing, cable tray alignment, wiring practices, and integration of lighting controls. Safety considerations such as grounding, hazardous-area interfaces, lightning protection, and firestopping are highlighted to ensure compliance with regulatory standards and operational safety. Reliability practices include preventive maintenance scheduling, redundancy planning, and troubleshooting workflows to minimize downtime and extend asset life. Unique features of the handbook include three-dimensional engineering schematics, technical workflows, and actual equipment or field reference photographs. These visual elements bridge the gap between design documentation and site execution, enabling engineers, inspectors, and operators to validate installations against design intent. The handbook is structured to serve as a training reference, project checklist, and engineering review aid. It supports engineering, construction, quality assurance, commissioning, and operations teams by reducing avoidable rework, strengthening quality evidence, and improving consistency between engineering documents and site execution. Applicable across oil and gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine sectors, the handbook delivers a professional, auditable, and field-usable reference. By combining structured methodology, technical rigor, and lifecycle governance, it equips project teams with a clear roadmap for safe, reliable, and maintainable lighting installations.

Rp499.000
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Electrical

INSTALLATION DETAILS FOR POWER WORK

The Industrial Electrical Power Systems Installation Handbook provides detailed engineering and construction guidance for the installation of electrical infrastructure across industrial facilities. It establishes a structured framework that connects design intent to verified field installation and reliable operation throughout the project lifecycle. Coverage includes transformers, switchgear, motor control centers (MCCs), distribution boards, cables, cable containment, underground systems, busways, terminations, earthing, lightning protection, hazardous-area interfaces, firestopping, testing, and commissioning. Each technical chapter integrates theoretical principles with practical engineering equations, calculation notes, and worked examples. Material controls, procurement and logistics considerations, and inspection forms are embedded to ensure traceability and compliance. Maintenance frequencies, reliability practices, and sector-specific application matrices provide operational assurance across oil and gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine sectors. Construction guidance emphasizes installation sequencing, cable routing, termination practices, switchgear alignment, transformer connections, MCC integration, and underground system constructability. Inspection and test plans (ITPs) and commissioning forms are included to support quality assurance and safe energization. Reliability practices such as redundancy planning, preventive maintenance, and risk-based inspection are highlighted to extend asset life and minimize downtime. Unique features of the handbook include technical workflows, three-dimensional engineering schematics, and actual equipment or field reference photographs. These visual elements bridge the gap between design documentation and site execution, enabling engineers, inspectors, and operators to validate installations against design intent. The document is organized to support engineering, construction, quality assurance, commissioning, and operations teams. It functions as a training reference, project checklist, and engineering review aid. By combining structured methodology, technical rigor, and lifecycle governance, the handbook strengthens procurement accuracy, construction readiness, commissioning safety, and long-term system reliability. Applicable across multiple industrial sectors, the handbook delivers a professional, auditable, and field-usable reference. It equips project teams with a clear roadmap for safe installation, reliable operation, and compliant maintenance of electrical power systems.

Rp499.000
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Electrical

INSTALLATION DETAIL POWER GENERATION

The Power-Generation Electrical Systems Installation Handbook provides detailed engineering and construction guidance for the installation of industrial power-generation electrical systems. It establishes a consistent technical framework that connects design intent to verified field installation and reliable long-term operation. Coverage extends from generator terminals through high-voltage transformation, station distribution, cabling, grounding, auxiliary power, emergency systems, field devices, and commissioning activities. Each chapter integrates theoretical principles with practical engineering methods, ensuring that design calculations are directly linked to construction practices and commissioning protocols. Technical content includes system architecture, equipment specifications, routing layouts, grounding and bonding procedures, lightning protection, hazardous-area considerations, and emergency power integration. Worked examples, calculation notes, and material specifications are provided to strengthen design accuracy and procurement control. Construction guidance emphasizes installation sequencing, cable pulling, termination practices, switchgear alignment, transformer connections, motor integration, and field-device wiring. Inspection and test plans (ITPs), commissioning forms, and maintenance schedules are embedded to ensure traceability and compliance. Reliability practices such as redundancy planning, preventive maintenance frequencies, and sector-specific application matrices are included to support operational assurance. Unique features of the handbook include three-dimensional engineering schematics, technical workflows, and actual equipment or field reference photographs. These visual elements bridge the gap between design documentation and site execution, enabling engineers, inspectors, and operators to validate installations against design intent. The handbook is structured for use as a training reference, project checklist, and engineering review aid. It supports project teams in reducing late rework, improving constructability, enhancing commissioning safety, and establishing a credible technical baseline for operations. Applicable across oil and gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine sectors, the handbook delivers a professional, auditable, and field-usable reference. By combining structured methodology, technical rigor, and lifecycle governance, it equips teams with a clear roadmap for safe start-up and reliable long-term operation of power-generation electrical systems.

Rp499.000
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Electrical

GENERAL ELECTRICAL COMMON

The General Electrical Common Handbook establishes an integrated framework for industrial electrical engineering, designed to unify theory, design practice, and field execution. It provides structured guidance across system architecture, load assessment, single-line diagrams, short-circuit and load-flow studies, protection coordination, grounding, lightning protection, hazardous-area design, cable engineering, routing systems, switchgear, transformers, motors, emergency power, lighting, construction, testing, commissioning, and maintenance. Each technical chapter combines theoretical foundations with practical equations, worked examples, and sector-specific application matrices. Material specifications, procurement controls, inspection and test plans, commissioning forms, and maintenance frequencies are embedded to ensure traceability and lifecycle reliability. The handbook emphasizes risk-based design, operational safety, and constructability, enabling project teams to deliver electrical systems that are auditable, maintainable, and compliant with international standards. Unique features include three-dimensional engineering schematics, technical workflows, and actual equipment or field reference photographs. These visual elements bridge the gap between design intent and real-world application, supporting engineers, inspectors, and asset owners in both office and site environments. The structured format allows the handbook to function simultaneously as a training reference, project checklist, and engineering review aid. By integrating design theory with execution protocols, the handbook strengthens procurement accuracy, construction readiness, commissioning safety, and long-term system reliability. It provides practical pathways for quality control, document verification, and final handover, ensuring that electrical systems are consistently represented and properly validated. Applicable across oil and gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine sectors, the handbook delivers a professional baseline for safe, efficient, and compliant electrical engineering practice. Its holistic approach equips project teams with auditable methods, technical rigor, and lifecycle assurance, making it a cornerstone reference for industrial electrical engineering.

Rp499.000
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Instrument

INSTRUMENT SAMPLE SPECIFICATION

The Instrument Sample Specification Handbook Version 1.0 provides a complete framework for preparing, reviewing, and applying instrumentation specifications throughout the engineering, procurement, construction (EPC), and operating lifecycle. It consolidates general requirements, device-specific selection criteria, material and enclosure selection, process connections, signal interfaces, hazardous-area compliance, documentation standards, procurement control, inspection and test planning, installation practices, commissioning procedures, maintenance strategies, and reliability assurance into a single auditable reference. Coverage spans pressure, flow, level, and temperature measurement systems; control and shutdown valves; analyzers; fire and gas detection devices; instrument air systems; tubing and hook-ups; cabling and junction boxes; earthing and EMC requirements; DCS, PLC, SIS, and F&G architectures; digital networks; power distribution and UPS systems. Each technical chapter emphasizes traceability from design intent through procurement specifications, construction quality records, inspection evidence, commissioning validation, and long-term maintenance documentation. Calculation notes and worked examples illustrate practical engineering applications such as range selection, hydrostatic head evaluation, differential-pressure flow measurement, RTD resistance analysis, valve sizing concepts, sample delay estimation, voltage-drop calculation, instrument-air consumption checks, calibration error assessment, and reliability interval determination. Technical tables, material lists, inspection records, maintenance-frequency matrices, and ITP/FAT/SAT forms are included to strengthen project execution and lifecycle assurance. Unique to this handbook is the integration of visual content. Every technical chapter includes a chapter-specific 3D engineering drawing paired with actual equipment and field-detail references. Construction-intensive chapters provide dedicated 3D installation views, while selected critical chapters include photorealistic 3D instrument schematics. These visuals are combined with engineering narrative to reinforce design intent, procurement readiness, fabrication support, installation consistency, commissioning validation, and long-term reliability planning. Sector application matrices tailor practices for oil & gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine projects. Each matrix highlights sector-specific risks, regulatory requirements, and adaptation strategies. By combining structured methodology, technical rigor, and lifecycle governance, the Instrument Sample Specification Handbook delivers a professional, auditable, and field-usable reference. It strengthens technical assurance, minimizes risk, and establishes a credible baseline for safe, efficient, and compliant instrumentation specification across diverse industrial environments.

Rp499.000
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Instrument

SAMPLE DRAWING FOR INSTRUMENT

The Sample Drawing for Instrument Handbook Version 1.0 provides a comprehensive framework for preparing, reviewing, issuing, constructing, inspecting, testing, commissioning, and maintaining industrial instrumentation drawings. It consolidates engineering theory, drawing conventions, installation practices, inspection checkpoints, and lifecycle governance into a single auditable reference. Coverage includes instrument layouts, hook-ups, installation details, loop and wiring diagrams, junction boxes, control panels, cable systems, grounding, pneumatic and impulse connections, common instrument technologies, control valves, analyzers, detection systems, packaged equipment interfaces, DCS/PLC drawings, logic interfaces, hazardous-area installation, field construction, heavy-lift activities, pre-commissioning, commissioning, and as-built turnover. Each chapter emphasizes traceability between design intent, procurement specifications, construction quality records, inspection evidence, commissioning validation, and long-term maintenance documentation. Engineering theory is integrated with field execution. Fundamental calculations include 4–20 mA loop voltage margin, cable voltage-drop evaluation, pneumatic pressure-loss awareness, thermowell insertion considerations, impulse-line response and slope, orifice and differential-pressure relationships, hydrostatic head for level measurement, valve sizing concepts, signal segregation, grounding philosophy, and inspection acceptance logic. Worked examples are deliberately simplified to illustrate calculation methods and must be confirmed using project-specific design data and governing codes or standards. Technical resources include material specification tables, procurement-control requirements, inspection and test plans (ITPs), inspection forms, commissioning records, maintenance-frequency matrices, and turnover dossiers. Visual content integrates actual-style installation scenes, three-dimensional engineering schematics, hook-up arrangements, and technical flow diagrams, reinforcing the connection between engineering design and field implementation. Sector application matrices tailor practices for oil & gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine projects. Each matrix highlights sector-specific risks, regulatory requirements, and adaptation strategies. By combining structured methodology, technical rigor, and lifecycle governance, the Sample Drawing for Instrument Handbook delivers a professional, auditable, and field-usable reference. It strengthens technical assurance, minimizes risk, and establishes a credible baseline for safe, efficient, and compliant instrumentation drawing practices across diverse industrial environments.

Rp499.000
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Instrument

INSTRUMENT DESIGN

The Instrument Design Handbook Version 1.0 provides a comprehensive engineering reference covering the full lifecycle of industrial instrumentation, from design philosophy through maintenance and reliability. It consolidates measurement fundamentals, system architectures, material specifications, installation practices, inspection checkpoints, commissioning procedures, and lifecycle governance into a single auditable framework. Coverage includes pressure, flow, level, and temperature measurement systems; control and shutdown valves; analyzers; fire and gas detection; instrument air systems; tubing and hook-ups; installation supports; cabling and junction boxes; earthing and electromagnetic compatibility (EMC); hazardous-area compliance; DCS, PLC, SIS, and F&G architectures; digital networks; power distribution and UPS systems; engineering deliverables; procurement and vendor control; construction practices; pre-commissioning; commissioning; and lifecycle maintenance. Each technical chapter is structured to combine theory with practical application. Content includes a 3D engineering overview, calculation notes, field-realistic installation visualizations, material and component controls, worked examples, technical flow diagrams, inspection guidance, maintenance strategies, and sector-specific application matrices. Worked examples illustrate practical engineering applications such as transmitter range selection, valve sizing, loop resistance evaluation, voltage-drop calculations, uncertainty budgeting, and reliability assessments. Appendices provide reusable resources including calculation records, inspection and test plans (ITPs), field-release documentation, loop-check registers, commissioning forms, maintenance-frequency matrices, material lists, procurement-control requirements, industrial application notes, and structured handover dossiers. These appendices reinforce traceability from design intent through procurement specifications, construction quality records, inspection evidence, commissioning validation, and long-term maintenance documentation. Industrial application matrices tailor practices for oil & gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine projects. Each matrix highlights sector-specific risks, regulatory requirements, and adaptation strategies. By combining structured methodology, technical rigor, and lifecycle governance, the Instrument Design Handbook delivers a professional, auditable, and field-usable reference. It strengthens technical assurance, minimizes risk, and establishes a credible baseline for safe, efficient, and compliant instrumentation design across diverse industrial environments.

Rp499.000
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Instrument

INSTRUMENT TEST

The Instrument Test Handbook Version 1.0 presents a comprehensive engineering framework for testing, calibration, inspection, commissioning, and lifecycle maintenance of industrial instrumentation. It consolidates technical practices, safety governance, and lifecycle assurance into a single auditable reference, ensuring that measurement systems remain reliable, traceable, and compliant across diverse industrial environments. Coverage spans the complete measurement chain, from sensor and primary element through transmitter, field wiring and tubing, barriers and marshalling, PLC/DCS/SIS I/O, alarms, and final control elements. Each chapter emphasizes measurement uncertainty, traceability, test-equipment management, hazardous-area considerations, inspection checkpoints, and turnover documentation. The handbook integrates health, safety, and environment (HSE) requirements, including lock-out/tag-out (LOTO) controls, supervised circuits, diagnostic coverage, segregation, independent verification, and configuration control. Calculation notes and worked examples illustrate battery autonomy, loop voltage-drop evaluation, network margin, response-time budgeting, spare capacity checks, and availability analysis. These examples are deliberately transparent, showing assumptions, governing equations, input data, acceptance criteria, and reviewer notes, enabling users to reconstruct the logic independently. Inspection and test planning (ITP) concepts are embedded, supported by standardized inspection forms, calibration records, as-found/as-left documentation, loop-check registers, commissioning forms, and maintenance-frequency guidance. QA/QC chapters reinforce traceability through dimensional checks, nonconformance control, field-release documentation, and structured turnover dossiers. Lifecycle governance extends from procurement and fabrication through installation, commissioning, operation, maintenance, troubleshooting, and reliability improvement. Sector application matrices tailor practices for oil & gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine projects. Each matrix highlights sector-specific risks, regulatory requirements, and adaptation strategies. By combining structured methodology, technical rigor, and lifecycle governance, the Instrument Test Handbook delivers a professional, auditable, and field-usable reference. It strengthens technical assurance, minimizes risk, and establishes a credible baseline for safe, efficient, and compliant testing of instrumentation systems across diverse industrial environments

Rp499.000
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Instrument

REQUISITION INSTRUMENT

The Requisition Instrument Handbook Version 1.0 provides an integrated engineering framework for preparing, reviewing, purchasing, inspecting, installing, and commissioning industrial instrumentation and associated materials. It consolidates requisition philosophy, design basis, instrument index control, material requisition packages, technical bid evaluation, procurement governance, inspection checkpoints, commissioning procedures, and lifecycle reliability into a single auditable reference. Coverage includes field instruments, control and shutdown valves, analyzers, fire and gas devices, bulk materials, cables, junction boxes, panels, DCS/PLC/SIS/F&G hardware, power supplies, hazardous-area requirements, supports, hook-ups, package interfaces, quality control, vendor data, logistics, and site turnover. Each chapter emphasizes traceability from design intent through vendor alignment, inspection evidence, commissioning validation, and long-term reliability documentation. The handbook integrates technical theory with procurement-ready content. Chapters include design data requirements, selection criteria, formulas and worked examples, material specifications, bill-of-material considerations, inspection and test points, maintenance frequencies, field-release criteria, commissioning checks, and industrial-sector application notes. Worked examples illustrate practical engineering applications such as uncertainty budgeting, valve sizing, calibration error analysis, loop-check validation, and reliability assessment. These examples are deliberately transparent, showing assumptions, governing equations, input data, acceptance criteria, and reviewer notes, enabling users to reconstruct the logic independently. Visual content includes unique 3D engineering sketches, field-style equipment visualizations, and technical flow diagrams created for each chapter topic. Procurement chapters reinforce vendor alignment through datasheet consistency, controlled deviations, inspection hold points, and preservation requirements. QA/QC sections embed inspection and test plan (ITP) logic, dimensional checks, nonconformance control, field-release documentation, and turnover dossiers. Commissioning chapters provide structured records, acceptance forms, and reliability indicators to ensure safe and efficient startup. Sector application matrices tailor practices for oil & gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine projects. Each matrix highlights sector-specific risks, regulatory requirements, and adaptation strategies. By combining structured methodology, technical rigor, and lifecycle governance, the Requisition Instrument Handbook delivers a professional, auditable, and field-usable reference. It strengthens technical assurance, minimizes risk, and establishes a credible baseline for safe, efficient, and compliant requisitioning of instrumentation across diverse industrial environments.

Rp499.000
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Instrument

INSTRUMENT BOQ

The Instrument Bill of Quantity (BOQ) Handbook Version 1.0 provides an integrated framework for preparing, validating, and controlling instrumentation quantities across industrial projects. It consolidates engineering deliverables, procurement governance, construction readiness, commissioning validation, and lifecycle maintenance into a single auditable reference. Coverage includes both tagged equipment and bulk materials, emphasizing traceability from engineering documents, calculation transparency, material specification, procurement control, construction installation, inspection checkpoints, commissioning evidence, and maintenance records. Technical scope spans pressure, temperature, flow, level, and analytical measurement; control and shutdown valves; fire and gas detection systems; DCS/PLC/SIS hardware; panels and junction boxes; signal cables and termination accessories; trays and conduits; tubing, manifolds, instrument air, supports, earthing, hazardous-area equipment, and package instrumentation. Worked examples demonstrate route-based and tag-based take-off methods, allowances, spares, and estimate maturity factors. These examples are deliberately transparent, showing assumptions, governing equations, input data, acceptance criteria, and reviewer notes, enabling project teams to reconstruct the logic independently. Quality-control sections embed inspection and test plan (ITP) logic, inspection records, field-release criteria, calibration registers, loop-check requirements, and commissioning forms. Maintenance sections link installed population to calibration frequency, proof testing, critical spares, and reliability strategies. Procurement readiness is reinforced through datasheet consistency, vendor deviation control, inspection checkpoints, and preservation requirements. Industrial application matrices tailor practices for oil & gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine facilities. Each matrix highlights sector-specific risks, regulatory requirements, and adaptation strategies. The handbook is designed as a practical reference adaptable to FEED, detailed engineering, EPC execution, brownfield modification, and maintenance projects. It emphasizes that project-specific requirements, approved engineering documents, and formal technical approval govern final BOQ preparation. By combining structured methodology, technical rigor, and lifecycle governance, the Instrument BOQ Handbook delivers a professional, auditable, and field-usable reference. It strengthens technical assurance, minimizes risk, and establishes a credible baseline for safe, efficient, and compliant instrumentation quantity management across diverse industrial environments.

Rp499.000
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Instrument

DESIGN GUIDANCE INSTRUMENT DRAWING

The Design Guidance Instrument Drawing Handbook Version 1.0 provides a comprehensive technical framework for the preparation, control, and lifecycle management of instrument engineering drawings across oil & gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine projects. It integrates drawing conventions with data management, material specification, procurement, fabrication, installation, inspection, commissioning, and maintenance requirements, ensuring traceability and compliance throughout the project lifecycle. Coverage includes instrument symbols and identification, P&ID representation, instrument index and I/O interfaces, loop and hook-up diagrams, installation details, cable and wiring diagrams, tray and junction-box routing, marshalling and termination, control panel arrangements, instrument location plans, cause-and-effect logic, DCS/PLC architecture, analyzers, fire and gas systems, metering, valves, hazardous-area details, 3D model coordination, vendor drawing control, and as-built closeout. Each chapter emphasizes design intent, technical criteria, inspection checkpoints, and lifecycle reliability. The handbook embeds drawing hierarchy and installation philosophy, supported by calculation notes, worked examples, material specifications, procurement-control requirements, fabrication and construction methods, inspection and test plans (ITPs), installation checklists, commissioning records, maintenance frequencies, and reliability considerations. Visual content includes actual-style installation scenes, three-dimensional engineering concepts, hook-up arrangements, and technical flow diagrams, reinforcing the connection between engineering design and field application. Worked examples illustrate practical applications such as loop wiring verification, voltage-drop evaluation, junction-box allocation, marshalling cabinet termination, and cause-and-effect validation. Technical tables, inspection forms, commissioning records, and maintenance matrices are included to strengthen project execution and lifecycle assurance. Sector application matrices tailor practices for oil & gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine facilities. Each matrix highlights sector-specific risks, regulatory requirements, and adaptation strategies. By combining structured methodology, technical rigor, and lifecycle governance, the Design Guidance Instrument Drawing Handbook delivers a professional, auditable, and field-usable reference. It strengthens technical assurance, minimizes risk, and establishes a credible baseline for safe, efficient, and compliant instrumentation drawing practices across diverse industrial environments.

Rp499.000
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Instrument

INSTALLATION DRAWING FOR INSTRUMENT

The Installation Drawing for Instrument Handbook Version 1.0 provides a comprehensive technical reference for developing and applying instrument installation drawings throughout the engineering, procurement, fabrication, construction, commissioning, and maintenance lifecycle of industrial projects. It consolidates design philosophy, drawing hierarchy, installation practices, inspection checkpoints, and lifecycle governance into a single auditable framework. Coverage includes typical arrangements and engineering controls for field instruments, pressure and differential-pressure transmitters, temperature assemblies, flowmeters, level instruments, analytical systems, fire and gas detectors, junction boxes, cable trays, marshalling cabinets, local panels, pneumatic systems, hazardous-area equipment, instrument supports, tubing, package units, rotating equipment, and wireless devices. Each chapter combines engineering theory with field application, ensuring that installation drawings are both technically accurate and practically usable. The handbook emphasizes drawing hierarchy, installation philosophy, and lifecycle traceability. Technical content includes basic equations, calculation notes, worked examples, material specifications, procurement-control requirements, fabrication and construction methods, inspection and test plans (ITPs), installation checklists, commissioning records, maintenance frequencies, reliability considerations, and cross-industry application. Worked examples illustrate practical engineering applications such as voltage-drop evaluation, loop resistance checks, junction-box allocation, tubing layout, and reliability assessments. Technical tables, inspection forms, commissioning records, and maintenance matrices are included to strengthen project execution. Visual content provides actual-style installation scenes, three-dimensional engineering concepts, hook-up arrangements, and technical flow diagrams, reinforcing the connection between design intent and field implementation. Industrial application guidance addresses oil & gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine facilities. Sector-specific adaptation matrices highlight regulatory requirements, environmental conditions, and risk considerations. The handbook is intended to improve constructability, installation consistency, inspection traceability, maintainability, and the quality of final as-built documentation. It reinforces the requirement that project-specific specifications, safety requirements, approved drawings, and vendor data govern the final installation. By combining structured methodology, technical rigor, and lifecycle governance, the Installation Drawing for Instrument Handbook delivers a professional, auditable, and field-usable reference that strengthens technical assurance, minimizes risk, and establishes a credible baseline for safe, efficient, and compliant instrumentation installation practices across diverse industrial environments.

Rp499.000
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Instrument

PREPARATION GUIDANCE FOR INSTRUMENT

The Preparation Guidance for Instrument Handbook Version 1.0 provides a comprehensive technical framework for preparing and managing instrumentation work across engineering, procurement, fabrication, logistics, construction, testing, commissioning, and maintenance. It is designed for instrument engineers, designers, technicians, inspectors, QA/QC personnel, construction teams, commissioning engineers, and project managers who require a structured and auditable reference. Coverage begins with design-basis development, codes and standards, and instrument indexing. It extends into technology selection, measurement principles, datasheet preparation, control valves, process measurement, analyzers, fire and gas systems, materials, tubing, hook-ups, cabling, junction boxes, I/O allocation, and control-system integration. Procurement and vendor-data management are reinforced through requirements for receiving, storage, heavy-lift construction support, inspection checkpoints, calibration procedures, loop checking, commissioning validation, reliability assurance, functional safety, and project records. The handbook emphasizes traceability and lifecycle governance. Each requirement is linked to its design basis, technical parameter, verification method, and record. Procurement readiness is supported by datasheet consistency, vendor deviation control, inspection and test plan (ITP) development, preservation requirements, and shipping documentation. Construction chapters provide structured guidance for installation, hazardous-area compliance, and field-release records. Commissioning chapters embed calibration forms, loop acceptance criteria, turnover dossiers, and reliability indicators. Worked examples and calculation notes illustrate practical engineering applications such as transmitter range selection, 4–20 mA scaling, cable voltage-drop evaluation, junction-box spare allocation, uncertainty budgeting, and maintenance-frequency logic. Technical tables, material specifications, inspection forms, commissioning records, and maintenance matrices are included to strengthen project execution. Unique features include actual reference photography and distinct 3D engineering schematics for every chapter, reinforcing the connection between design intent and field application. Sector application matrices tailor practices for oil & gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine projects. By combining structured methodology, technical rigor, and lifecycle governance, the Preparation Guidance for Instrument Handbook delivers a professional, auditable, and field-usable reference. It strengthens technical assurance, minimizes risk, and establishes a credible baseline for safe, efficient, and compliant instrumentation preparation across diverse industrial environments.

Rp499.000
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Instrument

DETECTION EQUIPMENT SYSTEM

The Detection Equipment System Handbook Version 1.0 provides a detailed engineering reference for the design, specification, procurement, fabrication support, shipment, installation, construction, integration, testing, commissioning, maintenance, and reliability of industrial detection systems. It consolidates technical practices, lifecycle governance, and sector-specific adaptation into a single auditable framework. Coverage includes point and open-path gas detectors, ultrasonic gas leak detection, toxic and oxygen sensors, flame detection technologies, smoke and heat detectors, portable gas monitoring devices, sampling systems, fire-and-gas controllers, DCS and HMI integration, alarm notification, field wiring, hazardous-area practices, and 3D detector mapping. Each chapter emphasizes design intent, technical criteria, inspection checkpoints, and lifecycle reliability. The handbook embeds procurement readiness through datasheet consistency, vendor deviation control, inspection and test plan (ITP) development, material traceability, fabrication surveillance, preservation requirements, and shipping documentation. Construction and installation chapters provide structured guidance for mounting, cabling, hazardous-area compliance, and field-release records. Commissioning chapters include calibration procedures, loop checks, site acceptance testing (SAT), cause-and-effect validation, and turnover dossiers. Worked examples illustrate practical engineering applications such as gas-unit conversion, 4–20 mA scaling, loop resistance evaluation, voltage-drop calculation, sampling transport-time analysis, battery capacity checks, and availability assessments. Technical tables, checklists, inspection records, commissioning forms, and maintenance-frequency matrices are included to support project execution and lifecycle assurance. Sector application matrices tailor practices for oil & gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine facilities. Each matrix highlights sector-specific risks, regulatory requirements, and adaptation strategies. By combining structured methodology, technical rigor, and lifecycle governance, the Detection Equipment System Handbook delivers a professional, auditable, and field-usable reference. It strengthens technical assurance, minimizes risk, and establishes a credible baseline for safe, efficient, and compliant detection-system engineering across diverse industrial environments.

Rp499.000
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Instrument

GAS DETECTION SYSTEM

The Gas Detection System Handbook Version 1.0 provides a lifecycle-oriented technical framework for fixed, portable, and integrated industrial gas detection systems. It consolidates hazard identification, detector technology selection, system integration, installation practices, commissioning procedures, and maintenance strategies into a single auditable reference. Coverage includes combustible, toxic, and oxygen hazards; electrochemical, catalytic, point infrared, open-path infrared, and ultrasonic technologies. Detector selection and location principles are reinforced through fire-and-gas mapping, ensuring coverage adequacy and compliance with safety standards. Interfaces with F&G PLCs, DCS, and ESD systems are addressed, along with power distribution, cabling, networking, and hazardous-area installation. Procurement readiness is supported by material control, fabrication standards, factory acceptance testing (FAT), construction practices, field-release documentation, calibration procedures, loop checks, site acceptance testing (SAT), commissioning validation, inspection checkpoints, QA/QC surveillance, and lifecycle maintenance. Practical calculation notes include gas-unit conversion, 4–20 mA scaling, loop resistance, voltage-drop evaluation, sampling transport time, battery capacity, and availability analysis. Worked examples are deliberately transparent, showing assumptions, governing equations, input data, acceptance criteria, and reviewer notes, enabling users to reconstruct the logic independently. Technical tables, checklists, inspection records, commissioning forms, and maintenance-frequency matrices are included to strengthen project execution and lifecycle assurance. Sector guidance addresses oil & gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine facilities. Each sector matrix highlights specific risks, regulatory requirements, and adaptation strategies. The handbook emphasizes traceability from hazard scenario to verified protection function. Every safety-critical decision requires project-specific engineering validation, ensuring that detector systems are not only correctly specified but also properly installed, tested, and maintained for long-term reliability. By combining structured methodology, technical rigor, and lifecycle governance, the Gas Detection System Handbook delivers a professional, auditable, and field-usable reference. It strengthens technical assurance, minimizes risk, and establishes a credible baseline for safe, efficient, and compliant gas detection practices across diverse industrial environments.

Rp499.000
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Instrument

CONTROL SYSTEM FOR FIRE MONITORING

The Control System for Fire Monitoring Handbook Version 1.0 provides a detailed engineering reference for the design, implementation, and lifecycle management of fire monitoring control systems in industrial and infrastructure facilities. It consolidates design philosophy, hazard scenario analysis, detector technologies, fire alarm and fire & gas (F&G) controllers, PLC/SIS/DCS/SCADA interfaces, alarm notification, firewater and suppression monitoring, HVAC and emergency shutdown integration, power systems, cabling, communication networks, hazardous-area requirements, human–machine interfaces (HMI), alarm management, cause-and-effect logic, redundancy, cybersecurity, installation, testing, commissioning, maintenance, reliability, procurement, inspection, and quality documentation. The technical approach emphasizes fail-safe behavior, supervised circuits, diagnostic coverage, segregation, independent verification, testability, configuration control, and complete lifecycle traceability. Calculation notes include battery autonomy, loop voltage-drop evaluation, network margin, response-time budgeting, spare capacity, and availability analysis. Worked examples are deliberately transparent, showing assumptions, governing equations, input data, acceptance criteria, and reviewer notes to strengthen engineering assurance and training. Appendices provide material lists, inspection and test plan (ITP) templates, factory acceptance test (FAT) and site acceptance test (SAT) forms, commissioning records, maintenance-frequency guidance, inspection registers, and sector application matrices. These resources ensure traceability from design intent through procurement specifications, construction quality records, inspection evidence, commissioning validation, and long-term maintenance documentation. Industrial application matrices tailor practices for oil & gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine projects. Each matrix highlights sector-specific risks, regulatory requirements, and adaptation strategies. By combining structured methodology, technical rigor, and lifecycle governance, the Control System for Fire Monitoring Handbook delivers a professional, auditable, and field-usable reference. It strengthens technical assurance, minimizes risk, and establishes a credible baseline for safe, efficient, and compliant fire monitoring control-system implementation across diverse industrial environments.

Rp499.000
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SPECIFICATION MONITORING SYSTEM

The Specification Monitoring System Handbook Version 1.0 provides a comprehensive framework for preparing monitoring system specifications across industrial and infrastructure facilities. It consolidates requirements engineering, system architecture, instrumentation integration, cybersecurity, and lifecycle governance into a single auditable reference. Coverage includes field instrumentation, remote I/O, PLC and RTU systems, distributed control system (DCS) interfaces, supervisory control and data acquisition (SCADA), human–machine interfaces (HMI), alarm management, historians, industrial communications, time synchronization, uninterruptible power supplies (UPS), panel design, redundancy, cybersecurity, network segmentation, and software lifecycle management. Procurement readiness is reinforced through datasheet consistency, vendor deviation control, inspection checkpoints, factory acceptance testing (FAT), site acceptance testing (SAT), installation practices, commissioning validation, and maintenance strategies. The handbook emphasizes requirements engineering and verifiable acceptance criteria. Each requirement is defined with a source, technical parameter, verification method, and record. This ensures traceability from process intent through design deliverables, procurement specifications, construction quality records, inspection evidence, commissioning validation, and long-term maintenance documentation. Worked examples and calculation notes illustrate practical applications such as voltage-drop evaluation, error budgeting, alarm rationalization, redundancy verification, and network load balancing. Technical tables, inspection forms, commissioning records, and maintenance matrices are included to support project teams in applying consistent practices. Appendices provide reusable registers, inspection and test plans (ITPs), checklists, maintenance frequencies, inspection records, field-release forms, commissioning forms, and a sample integrated specification. These resources strengthen project execution by embedding standardized tools for traceability, compliance, and lifecycle assurance. Sector application matrices tailor practices for oil & gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, marine, and infrastructure projects. Each matrix highlights sector-specific risks, regulatory requirements, and adaptation strategies. By combining structured methodology, technical rigor, and lifecycle governance, the Specification Monitoring System Handbook delivers a professional, auditable, and field-usable reference. It strengthens technical assurance, minimizes risk, and establishes a credible baseline for safe, efficient, and compliant monitoring-system specification across diverse industrial environments.

Rp499.000
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SPECIFICATION VALVE

The Specification Valve Handbook Version 1.0 provides a comprehensive engineering reference for the specification, design, and lifecycle management of industrial valves. It consolidates functional requirements, design criteria, material selection, performance evaluation, procurement governance, inspection checkpoints, commissioning procedures, and maintenance strategies into a single auditable framework. Coverage includes valve functions and classifications, design basis, datasheet requirements, pressure–temperature ratings, materials and corrosion resistance, body, bonnet, trim, seat, and sealing design. Major valve types are addressed, including gate, globe, ball, butterfly, check, plug, and specialty valves. Actuation systems, control and relief service, sizing and pressure-drop calculations, cavitation, noise, flashing, fugitive emissions, and fire-safe design are integrated with considerations for cryogenic, high-temperature, sour-service, hydrogen, slurry, and offshore duties. The handbook emphasizes lifecycle scope, extending from procurement and vendor data management to material traceability, inspection and testing, inspection and test plan (ITP) development, preservation, shipping, installation, construction, commissioning, operation, maintenance, troubleshooting, and root-cause analysis. Each chapter embeds design intent, technical criteria, inspection checkpoints, and reliability guidance. Worked examples illustrate practical engineering applications such as valve sizing, Cv calculations, pressure-drop evaluation, cavitation screening, noise prediction, actuator thrust determination, and reliability assessment. Technical tables, datasheet templates, inspection forms, and maintenance records are included to support project teams in applying consistent practices. Industrial application guidance addresses oil & gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine facilities. Sector-specific adaptation matrices highlight regulatory requirements, environmental conditions, and risk considerations. The handbook emphasizes safe design, code compliance, maintainability, lifecycle reliability, and documented engineering judgment. By combining structured methodology, technical rigor, and lifecycle governance, the Specification Valve Handbook delivers a professional, auditable, and field-usable reference. It strengthens technical assurance, minimizes risk, and establishes a credible baseline for safe, efficient, and compliant valve specification across diverse industrial environments.

Rp499.000
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Instrument

SPECIFICATION DETECTOR

The Specification Detector Handbook Version 1.0 provides a comprehensive reference for the engineering, specification, and lifecycle management of industrial detector systems used for fire, gas, smoke, heat, and multi-sensor applications. It consolidates detector technologies, performance criteria, design basis, selection principles, placement guidelines, hazardous-area certification, electrical interfaces, and system integration into a traceable and auditable framework. Coverage includes materials specification, detector spacing and coverage notes, voltage-drop and error calculations, alarm logic, cause-and-effect matrices, procurement controls, inspection checkpoints, calibration procedures, commissioning workflows, maintenance strategies, troubleshooting guidance, and reliability improvement. Cybersecurity and functional-safety interfaces are embedded to ensure resilience against evolving threats while maintaining compliance with international standards. Each chapter emphasizes measurable and auditable requirements such as defined sensitivity ranges, response times, environmental ratings, diagnostic capabilities, fail-safe states, documentation standards, inspection hold points, preservation methods, calibration records, proof tests, and maintenance frequencies. Worked examples illustrate practical engineering applications including spacing calculations, voltage-drop evaluation, alarm verification, and reliability assessment. Technical tables, inspection forms, commissioning records, and maintenance matrices are included to support project teams in applying consistent practices. Lifecycle governance is reinforced through procurement traceability, inspection evidence, deviation closure, commissioning validation, and structured turnover documentation. Sustainability topics and future technology considerations are integrated to align detector systems with evolving industrial and environmental requirements. Sector application matrices tailor practices for oil & gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, marine, and infrastructure projects. Each matrix highlights sector-specific risks, regulatory requirements, and adaptation strategies. By combining structured methodology, technical rigor, and lifecycle assurance, the Specification Detector Handbook delivers a professional, auditable, and field-usable reference. It strengthens technical assurance, minimizes risk, and establishes a credible baseline for safe, efficient, and compliant detector-system specification across diverse industrial environments.

Rp499.000
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PREPARATION INFORMATION ANALYZER

The Preparation Information Analyzer Handbook Version 1.0 defines a comprehensive framework for preparing, validating, and managing analyzer-related information across engineering, procurement, construction, commissioning, and operations. It establishes a structured methodology that integrates process input validation, measurement technology selection, sample system design, analyzer houses, installation materials, vendor documentation, inspection records, commissioning evidence, and maintenance master data into a traceable and auditable system. Technical coverage includes gas chromatographs, infrared and ultraviolet analyzers, oxygen and moisture sensors, continuous emission monitoring systems (CEMS), and process stream sampling. The handbook emphasizes how analyzer systems must be reconciled with project basis, datasheets, control-system interfaces, hazardous-area compliance, and lifecycle requirements. Procurement readiness is reinforced through datasheet consistency, vendor deviation control, inspection checkpoints, and preservation requirements. Worked examples and calculation notes illustrate uncertainty budgeting, sample transport lag evaluation, heat-load screening, calibration error analysis, proof-test screening, lifting-load checks, and reliability assessments. These examples are deliberately transparent, showing assumptions, governing equations, input data, acceptance criteria, and reviewer notes, enabling users to reconstruct the logic independently. Inspection and Test Plan (ITP) concepts are embedded, supported by standardized inspection forms, field-release records, commissioning dossiers, and maintenance-frequency guidance. Lifecycle governance is emphasized through procurement traceability, inspection evidence, deviation closure, commissioning validation, and structured turnover documentation. Maintenance readiness is integrated by defining inspection frequencies, reliability indicators, and replacement criteria based on evidence. Industrial application matrices tailor practices for oil & gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine projects. Each matrix highlights sector-specific risks, regulatory requirements, and adaptation strategies. By combining structured methodology, technical rigor, and lifecycle governance, the Preparation Information Analyzer Handbook delivers a professional, auditable, and field-usable reference. It strengthens technical assurance, minimizes risk, and establishes a credible baseline for safe, efficient, and compliant analyzer information preparation across diverse industrial environments.

Rp499.000
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VENDOR DOCUMENT REVIEW CONTROL VALVE

The Vendor Document Review Control Valve Handbook Version 1.0 provides a detailed and auditable framework for reviewing vendor documentation related to control valves and associated accessories. It translates purchase requirements and engineering criteria into structured review activities that can be applied consistently across project phases and industrial sectors, ensuring traceability, compliance, and lifecycle reliability. Coverage includes datasheet verification, sizing calculations, body and trim selection, actuator thrust and torque checks, positioner and accessory integration, materials and corrosion resistance, pressure integrity, leakage classification, functional safety interfaces, hazardous-area compliance, and diagnostic capabilities. Each review activity is aligned with project specifications, international standards, and sector-specific requirements. The handbook emphasizes measurable and auditable criteria such as defined ranges, accuracy, response times, environmental ratings, fail-safe states, inspection hold points, preservation methods, calibration procedures, loop acceptance, proof tests, and maintenance records. Vendor deviations are documented, normalized, and resolved under controlled governance to ensure technical assurance and procurement alignment. Worked examples illustrate practical review methods including uncertainty budgeting, cavitation and noise screening, valve authority evaluation, actuator thrust verification, calibration error analysis, and reliability assessment. These examples are deliberately transparent, showing assumptions, governing equations, input data, acceptance criteria, and reviewer notes, enabling reviewers to reconstruct the logic independently. Inspection and Test Plan (ITP) concepts are embedded, supported by standardized inspection forms, manufacturing surveillance records, FAT documentation, preservation checklists, commissioning dossiers, and maintenance-frequency guidance. Lifecycle governance is reinforced through procurement traceability, inspection evidence, deviation closure, commissioning validation, and structured turnover documentation. Sector application matrices tailor practices for oil & gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine projects. Each matrix highlights sector-specific risks, regulatory requirements, and adaptation strategies. By combining structured methodology, technical rigor, and lifecycle governance, the Vendor Document Review Control Valve Handbook delivers a professional, auditable, and field-usable reference. It strengthens design quality, supports vendor alignment, ensures construction readiness, enables safe commissioning, and establishes a credible baseline for long-term reliability of control-valve systems across diverse industrial environments.

Rp499.000
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CONTROL VALVE TECHNICAL BID EVALUATION

The Control Valve Technical Bid Evaluation Handbook Version 1.0 establishes a structured methodology for evaluating vendor bids related to control valves and associated accessories. It provides a lifecycle-based framework that integrates design, fabrication, procurement, shipping, construction, commissioning, and maintenance considerations, ensuring that technical recommendations are based on performance and reliability rather than purchase price alone. Coverage includes process sizing, severe-service phenomena, noise evaluation, body and trim selection, materials specification, pressure integrity, shutoff capability, actuator sizing, accessories, safety integrity level (SIL) interfaces, bid normalization, deviation management, inspection, manufacturing surveillance, preservation, installation, commissioning, maintenance, and spare-parts planning. Each evaluation chapter emphasizes traceability from process requirements through vendor documentation, inspection evidence, commissioning validation, and long-term reliability records. The handbook introduces structured bid-evaluation matrices, enabling project teams to compare vendor proposals on a normalized basis. Criteria include compliance with datasheets, adherence to design standards, material compatibility, actuator thrust and torque adequacy, diagnostic capabilities, fail-safe action, environmental ratings, and lifecycle maintenance requirements. Deviation management is embedded to ensure that vendor exceptions are documented, reviewed, and resolved under controlled governance. Worked examples illustrate practical evaluation methods such as uncertainty budgeting, cavitation and noise screening, valve authority calculation, actuator thrust verification, proof-test evaluation, calibration error analysis, and reliability assessment. These examples are deliberately transparent, showing assumptions, governing equations, input data, acceptance criteria, and reviewer notes, enabling users to reconstruct the evaluation logic independently. QA/QC chapters embed inspection and test plan (ITP) concepts, dimensional checks, nonconformance control, field-release documentation, and turnover dossiers. Commissioning chapters provide structured acceptance forms, performance verification matrices, and reliability indicators to ensure safe and efficient startup. By combining structured methodology, technical rigor, and lifecycle governance, the Control Valve Technical Bid Evaluation Handbook delivers a professional, auditable, and field-usable reference. It strengthens technical assurance, minimizes risk, and establishes a credible baseline for safe, efficient, and compliant evaluation of control-valve bids across oil & gas, petrochemical, chemical, power, water and wastewater, mining, manufacturing, offshore, and infrastructure/marine projects.

Rp499.000
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REQUISITION ANALYZER AND CONTROL VALVE

The Requisition Analyzer and Control Valve Handbook Version 1.0 provides a comprehensive methodology for requisitioning process analyzers and control valves across oil & gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, marine, and infrastructure applications. It consolidates engineering practices, procurement governance, inspection checkpoints, commissioning procedures, and lifecycle reliability into a single auditable reference. Coverage includes process input validation, measurement technology selection, sample system design, analyzer houses, control valve body and trim selection, liquid and gas sizing, cavitation and noise evaluation, materials specification, actuation systems, accessories, diagnostics, functional safety, hazardous-area compliance, utilities, procurement, QA/QC, factory acceptance testing (FAT), preservation, construction, commissioning, and maintenance readiness. Each chapter emphasizes traceability from design intent through vendor alignment, inspection evidence, commissioning validation, and long-term reliability documentation. Worked examples illustrate practical engineering applications such as uncertainty budgeting, sample transport lag evaluation, heat-load screening, valve authority calculation, liquid Cv sizing, actuator thrust determination, proof-test screening, calibration error analysis, lifting-load checks, and reliability assessment. These examples are deliberately transparent, showing assumptions, governing equations, input data, acceptance criteria, and reviewer notes, enabling users to reconstruct the logic independently. Procurement chapters reinforce vendor alignment through datasheet consistency, controlled deviations, inspection hold points, and preservation requirements. QA/QC sections embed inspection and test plan (ITP) logic, dimensional checks, nonconformance control, field-release documentation, and turnover dossiers. Commissioning chapters provide structured records, acceptance forms, and reliability indicators to ensure safe and efficient startup. Sector application matrices tailor practices for oil & gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine projects. Each matrix highlights sector-specific risks, regulatory requirements, and adaptation strategies. By combining structured methodology, technical rigor, and lifecycle governance, the Requisition Analyzer and Control Valve Handbook delivers a professional, auditable, and field-usable reference. It strengthens technical assurance, minimizes risk, and establishes a credible baseline for safe, efficient, and compliant requisitioning of analyzers and control valves across diverse industrial environments.

Rp499.000
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Instrument

DESIGN CRITERIA MEASUREMENT CONTROL

The Design Criteria Measurement Control Handbook Version 1.0 establishes a comprehensive framework for defining, verifying, and applying measurement-control criteria across industrial projects. It consolidates engineering principles, design philosophy, performance requirements, material specifications, installation practices, inspection checkpoints, commissioning procedures, and lifecycle reliability into a single auditable reference. Coverage includes process measurement fundamentals, control theory, instrumentation design deliverables, pressure, flow, level, and temperature systems, analyzer integration, control valves and actuators, pneumatic systems, distributed control systems (DCS), programmable logic controllers (PLC), safety instrumented systems (SIS), supervisory control and data acquisition (SCADA), wiring and grounding, hazardous-area protection, and industrial networks. Each chapter emphasizes measurable criteria such as defined ranges, accuracy, response times, environmental ratings, diagnostic capabilities, fail-safe states, and compliance with governing standards. The handbook highlights traceability from process requirements through design deliverables, procurement specifications, construction quality records, inspection evidence, commissioning validation, and long-term maintenance documentation. Worked examples and calculation notes illustrate how engineering assumptions are converted into practical selections and acceptance checks. Examples include 4–20 mA scaling, percent-of-span error evaluation, differential-pressure head correction, flow square-root extraction, temperature conversion, and tolerance assessment. Inspection and Test Plan (ITP) concepts are embedded, supported by standardized inspection forms, commissioning dossiers, calibration records, proof-test documentation, and maintenance-frequency guidance. Procurement and vendor alignment are reinforced through datasheet consistency, controlled deviations, inspection hold points, and preservation requirements. Commissioning chapters embed structured turnover documentation, performance verification matrices, and reliability indicators, ensuring safe and efficient startup. Sector application matrices provide tailored practices across oil & gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine projects. Each matrix highlights sector-specific risks, regulatory requirements, and adaptation strategies. By combining structured methodology, technical rigor, and lifecycle governance, the Design Criteria Measurement Control Handbook delivers a professional, auditable, and field-usable reference. It strengthens technical assurance, minimizes risk, and establishes a credible baseline for safe, efficient, and compliant measurement-control practices across diverse industrial environments.

Rp499.000
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Instrument

INSTRUMENT CONTROL SPECIFICATION

The Instrument Control Specification Handbook Version 1.0 provides a consolidated technical framework for specifying industrial instrumentation and control facilities across oil and gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, and infrastructure/marine applications. It establishes measurable, auditable, and lifecycle-oriented requirements to ensure consistency, reliability, and compliance across diverse industrial environments. Coverage includes project philosophy, instrument identification, measurement performance, pressure, flow, level, temperature, and analyzer systems; control valves and actuators; pneumatic systems; distributed control systems (DCS), programmable logic controllers (PLC), and safety instrumented systems (SIS); wiring and grounding; hazardous-area protection; installation and commissioning practices; and lifecycle reliability. Each specification chapter emphasizes design intent, material selection, dimensional tolerances, inspection checkpoints, and operational assurance. The handbook highlights requirements that are explicitly measurable and auditable, including defined ranges, accuracy and response times, material specifications, environmental ratings, diagnostic capabilities, interfaces, fail-safe states, documentation standards, factory and site acceptance tests, inspection hold points, preservation methods, calibration procedures, loop acceptance criteria, proof tests, maintenance frequencies, and record-keeping. Worked examples and basic equations illustrate how engineering assumptions are converted into practical selections and acceptance checks. Examples include 4–20 mA scaling, percent-of-span error evaluation, differential-pressure head correction, flow square-root extraction, temperature conversion, and tolerance assessment. These examples are deliberately transparent, showing assumptions, governing equations, input data, acceptance criteria, and reviewer notes to strengthen engineering assurance and training. Procurement and vendor alignment are reinforced through datasheet consistency, controlled deviations, inspection evidence, and documentation requirements. Commissioning chapters embed structured dossiers, turnover documentation, and reliability indicators, ensuring safe and efficient startup. Maintenance readiness is integrated by defining inspection frequencies, reliability tracking, and evidence-based replacement criteria. By combining structured methodology, technical rigor, and lifecycle governance, the Instrument Control Specification Handbook delivers a practical, auditable, and field-usable specification reference. It strengthens design quality, supports vendor alignment, ensures construction readiness, enables safe commissioning, and establishes a credible baseline for long-term reliability of instrumentation and control systems across diverse industrial sectors.

Rp499.000
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Instrument

INSTRUMENT STANDARD DRAWING

The Instrument Standard Drawing Handbook Version 1.0 establishes a structured technical framework for producing and controlling instrument standard drawings throughout engineering, procurement, fabrication, construction, commissioning, and operation. With thirty-three chapters, it provides comprehensive coverage of drawing standards, symbols, P&ID representation, loop and hook-up drawings, mounting details, tubing, valves and manifolds, measurement instruments, control valves, analyzers, fire and gas systems, junction boxes, cable systems, grounding, instrument air, power distribution, control-system cabinets, networks, control rooms, hazardous areas, package interfaces, vendor-data integration, fabrication and shipping, construction practices, commissioning, QA/QC, maintenance, and cross-industry applications. Each chapter is designed to deliver clarity and consistency by including design intent, typical deliverables, technical criteria, distinct 3D engineering visualizations, photo-realistic field imagery, lifecycle guidance, calculation notes or worked examples, material and procurement considerations, inspection and acceptance criteria, and maintenance/reliability guidance. This ensures that every drawing standard is not only technically accurate but also field-usable and auditable. The appendices consolidate reusable registers, inspection and test plan (ITP) forms, commissioning documentation, material controls, maintenance matrices, sector adaptation guidance, and a master drawing-review checklist. These resources provide project teams with standardized tools to ensure traceability, compliance, and efficiency across diverse industrial environments. Unique features include the integration of 3D-style technical schematics and field-reference imagery for each technical content page, reinforcing the connection between engineering design and practical application. Worked examples illustrate scaling, dimensional checks, valve sizing, and reliability calculations, while forms and records support EPC execution and lifecycle management. The intended outcome is a controlled and auditable drawing system in which each standard detail is traceable to its design basis, interface requirements, procurement specification, construction method, inspection evidence, and final as-built record. By combining structured methodology, technical rigor, and lifecycle governance, the Instrument Standard Drawing Handbook delivers a professional, auditable, and field-usable reference that strengthens technical assurance, minimizes risk, and establishes a credible baseline for safe, efficient, and compliant instrumentation drawing practices across global industries.

Rp499.000
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Instrument

ORIFICE CALCULATION

The Orifice Calculation Handbook Version 1.0 presents a comprehensive engineering framework for the design, application, and lifecycle management of differential-pressure orifice flow meters. It consolidates technical principles, calculation workflows, material specifications, installation practices, QA/QC, commissioning, uncertainty evaluation, and troubleshooting into a single auditable reference. Coverage includes the physical basis of flow restriction, plate geometry, pressure tapping arrangements, calculation sequences, and service adaptation for liquids, gases, and steam. Fluid properties, transmitter selection, impulse system design, and straight-run requirements are addressed to ensure measurement accuracy and compliance with governing codes. Materials, fabrication standards, procurement controls, inspection checkpoints, and commissioning procedures are integrated to support EPC execution and operational reliability. The handbook employs the standard mass-flow relationship based on calibrated discharge coefficient, expansibility factor, bore area, upstream density, and measured differential pressure. Iterative solutions are emphasized, particularly where discharge coefficient depends on Reynolds number and compressible-service calculations require gas density at flowing conditions. Worked examples are intentionally transparent, showing assumptions, governing equations, input data, acceptance criteria, and reviewer notes, enabling users to reconstruct the logic independently. QA/QC chapters embed inspection and test plan (ITP) logic, dimensional checks, nonconformance control, field-release documentation, and turnover dossiers. Commissioning chapters provide structured records, acceptance forms, and reliability indicators. Troubleshooting guidance links observed deviations to potential causes such as plate damage, impulse-line blockage, or transmitter drift, with corrective actions documented for field use. Technical tables, calculation notes, inspection forms, maintenance frequencies, and industrial application matrices are included to support sector-specific adaptation across oil & gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine facilities. By combining structured methodology, technical rigor, and lifecycle governance, the Orifice Calculation Handbook delivers a professional, auditable, and field-usable reference. It strengthens technical assurance, minimizes risk, and establishes a credible baseline for safe, efficient, and compliant flow measurement practices across diverse industrial environments.

Rp499.000
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Instrument

PREPARATION AND GUIDANCE INSTRUMENT CONTROL

The Preparation and Guidance Instrument Control Handbook Version 1.0 provides a comprehensive framework for preparing and guiding instrument control systems across oil and gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, marine, and infrastructure facilities. It consolidates technical practices, lifecycle governance, and practical execution tools into a single auditable reference. Technical coverage includes process measurement, control theory, field instruments, control valves, distributed control systems (DCS), programmable logic controllers (PLC), supervisory control and data acquisition (SCADA), safety instrumented systems (SIS), instrumentation design deliverables, material specifications, procurement control, vendor inspection, installation practices, testing, calibration, pre-commissioning, commissioning, operation, maintenance, reliability, and information management. Each chapter emphasizes design intent, material selection, inspection checkpoints, and lifecycle reliability. The appendices provide calculation notes, worked examples, inspection and test forms, field-release records, commissioning forms, maintenance schedules, material lists, procurement templates, industrial application matrices, abbreviations, standards registers, master checklists, and unit conversions. Worked examples illustrate scaling, level measurement, flow calculations, valve sizing, safety integrity level (SIL) assessments, and reliability evaluations. These examples are deliberately transparent, showing assumptions, governing equations, input data, acceptance criteria, and reviewer notes to strengthen engineering assurance. Unique features include more than 200 pages of structured engineering guidance, 3D-style technical schematics on each technical content page, and chapter-specific field-reference imagery providing equipment context. Forms and records are embedded to support practical EPC execution, ensuring traceability from design through commissioning and maintenance. Lifecycle emphasis extends beyond design into material control, fabrication interfaces, packing and shipment, receiving inspection, installation with construction equipment, pre-commissioning, commissioning, performance verification, maintenance strategy, and final documentation. This ensures that instrument control systems are not only correctly designed but also properly fabricated, installed, tested, and maintained for long-term reliability. By combining structured methodology, technical rigor, and lifecycle governance, the Preparation and Guidance Instrument Control Handbook delivers a professional, auditable, and field-usable reference. It strengthens technical assurance, minimizes risk, and establishes a credible baseline for safe, efficient, and compliant instrumentation control practices across diverse industrial environments.

Rp499.000
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Instrument

GUIDANCE CONTROL SYSTEM

The Guidance Control System Handbook Version 1.0 serves as a comprehensive technical reference for the design, implementation, and lifecycle management of industrial control systems. It consolidates control fundamentals, system architecture, distributed control systems (DCS), programmable logic controllers (PLC), safety instrumented systems (SIS/ESD), supervisory control and data acquisition (SCADA), human–machine interfaces (HMI), alarm management, historians, field interfaces, industrial networks, and cybersecurity. Advanced topics include proportional–integral–derivative (PID) strategies, multivariable control, interlocks, cabinet design, engineering data, testing, commissioning, maintenance, reliability, calculations, procurement, and sector-specific applications. The handbook emphasizes traceability from process requirements through design deliverables, purchased equipment, construction quality records, test evidence, system handover, and long-term lifecycle support. Each chapter integrates design intent, material specifications, installation practices, inspection checkpoints, and reliability indicators. Worked examples and calculation notes illustrate practical applications such as PID tuning, alarm rationalization, signal scaling, redundancy evaluation, and network load balancing. Technical tables, material lists, inspection forms, and test records provide standardized references to strengthen engineering assurance and compliance. Commissioning chapters embed structured dossiers, turnover documentation, and performance verification matrices. Maintenance readiness is reinforced through defined inspection frequencies, reliability tracking, and evidence-based replacement criteria. Cybersecurity practices are integrated into system architecture, ensuring resilience against evolving threats while maintaining operational integrity. Industrial sector matrices tailor practices for oil & gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine projects. Each matrix highlights sector-specific risks, regulatory requirements, and adaptation strategies. By combining structured methodology, technical rigor, and lifecycle governance, the Guidance Control System Handbook delivers a professional, auditable, and field-usable reference. It strengthens technical assurance, minimizes risk, and establishes a credible baseline for safe, efficient, and compliant control-system implementation across diverse industrial environments.

Rp499.000
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Instrument

SPECIFICATION INSTRUMENT CONTROL

The Specification Instrument Control Handbook provides a detailed framework for specifying, verifying, and documenting industrial instrumentation and control systems. It consolidates requirements for measurement instruments, control valves, shutdown valves, analyzer systems, fire and gas interfaces, DCS/PLC/SIS integration, panels, power supply, earthing, cabling, junction boxes, tubing, installation materials, inspection, commissioning, and maintenance. The handbook integrates calculation notes, worked examples, technical tables, material requirements, procurement controls, Inspection and Test Plan (ITP) concepts, inspection records, maintenance frequencies, sector application matrices, and unique engineering visuals. Each specification chapter emphasizes design intent, material selection, dimensional tolerances, installation practices, inspection checkpoints, and lifecycle reliability. Worked examples illustrate practical engineering applications such as 4–20 mA scaling, percent-of-span error evaluation, differential-pressure head correction, flow square-root extraction, temperature conversion, and tolerance assessment. Technical tables and calculation notes connect fundamental equations to project decisions and acceptance criteria, ensuring transparency and traceability. Procurement and vendor alignment are reinforced through datasheet consistency, controlled deviations, inspection evidence, and documentation requirements. Construction readiness is supported by installation material specifications, cabling and tubing standards, junction box layouts, and panel integration guidelines. Commissioning chapters embed structured dossiers, turnover documentation, and reliability indicators, ensuring safe and efficient startup. Maintenance readiness is integrated by defining inspection frequencies, reliability tracking, and evidence-based replacement criteria. Sector application matrices provide tailored practices across oil & gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine projects. By combining structured methodology, technical rigor, and lifecycle governance, the Specification Instrument Control Handbook delivers a practical, auditable, and field-usable specification reference. It strengthens design quality, supports vendor alignment, ensures construction readiness, enables safe commissioning, and establishes a credible baseline for long-term reliability of instrumentation and control systems across diverse industrial environments.

Rp499.000
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Instrument

GENERATION DATA FOR INSTRUMENT

The Generation Data for Instrument Handbook Version 1.0 defines a practical framework for producing, verifying, and maintaining instrument engineering data across EPC projects and operating-facility environments. It establishes a structured methodology that integrates source hierarchy, data models, tag philosophy, datasheet content, signal data, alarm and trip information, engineering parameters by instrument type, system interfaces, installation materials, vendor documentation, inspection records, commissioning evidence, and maintenance master data. The handbook emphasizes traceability, interdisciplinary consistency, field usability, digital handover, and configuration control. Each data element is required to have a clear source, revision status, engineering unit, and acceptance criteria. Interfaces between disciplines are reconciled before procurement, and vendor deviations are incorporated under controlled documentation. Commissioning and maintenance results are returned to the master dataset to ensure lifecycle continuity. Worked examples and calculation notes illustrate practical applications such as 4–20 mA scaling, percent-of-span error evaluation, differential-pressure head correction, flow square-root extraction, temperature conversion, and tolerance assessment. Technical tables, sample forms, inspection checkpoints, and maintenance-frequency guidance are included to support project teams in applying consistent practices. Inspection and Test Plan (ITP) concepts are embedded, supported by standardized inspection forms, field-release records, commissioning dossiers, and maintenance logs. Industrial application matrices provide sector-specific adaptation across oil & gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine facilities. Lifecycle governance is reinforced through procurement traceability, inspection evidence, deviation closure, commissioning validation, and structured turnover documentation. Maintenance readiness is integrated by defining inspection frequencies, reliability indicators, and replacement criteria based on evidence. By combining structured methodology, technical rigor, and lifecycle assurance, the Generation Data for Instrument Handbook delivers a professional, auditable, and field-usable reference. It strengthens technical assurance, minimizes risk, and establishes a credible baseline for safe, efficient, and compliant instrumentation data generation across diverse industrial environments.

Rp499.000
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Instrument

INSTRUMENT INSTRUCTION

The Instrument Instruction Handbook Version 1.0 provides a structured instruction system for industrial instrumentation, consolidating technical practices across the full lifecycle of engineering, procurement, installation, commissioning, and maintenance. It establishes a traceable framework that integrates measurement technologies, final control elements, safety instrumented systems, control systems, installation practices, calibration, loop checks, maintenance strategies, reliability assurance, procurement controls, inspection and test plans (ITPs), inspection forms, and sector-specific applications. Technical coverage spans pressure, flow, level, and temperature measurement; analyzers; control valves; SIS/ESD and fire & gas systems; PLC/DCS architectures and networks; instrument installation practices; calibration and loop verification; maintenance and reliability programs; procurement governance; and industrial application tailoring. Each chapter emphasizes design intent, material specification, installation sequencing, inspection checkpoints, and lifecycle reliability. Calculation notes and worked examples connect fundamental equations to project decisions and acceptance criteria. Examples include differential-pressure head correction, flow square-root extraction, 4–20 mA scaling, percent-of-span error evaluation, temperature conversion, and tolerance assessment. These worked examples are deliberately transparent, showing assumptions, governing equations, input data, acceptance criteria, and reviewer notes to strengthen engineering assurance and training. Lifecycle emphasis extends beyond design into material control, fabrication interfaces, packing and shipment, receiving inspection, installation with construction equipment, pre-commissioning, commissioning, performance verification, maintenance strategy, and final documentation. This ensures that instrumentation systems are not only correctly designed but also properly fabricated, installed, tested, and maintained for long-term reliability. Application sectors include oil & gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine projects. The handbook emphasizes that project-specific risk and regulatory requirements take precedence, ensuring compliance and safety across diverse industrial environments. By combining structured methodology, technical rigor, and lifecycle governance, the Instrument Instruction Handbook delivers a professional, auditable, and field-usable reference. It strengthens technical assurance, minimizes risk, and establishes a credible baseline for safe, efficient, and compliant instrumentation practices across global industries.

Rp499.000
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Instrument

INSTRUMENT CHECK SHEET

The Instrument Check Sheet Handbook Version 1.0 establishes a lifecycle-based methodology for verifying, inspecting, and documenting instrumentation systems across industrial projects. It integrates design verification, procurement control, fabrication checks, receipt inspection, installation validation, calibration, loop testing, logic verification, pre-commissioning, commissioning, handover, and maintenance readiness into a traceable and auditable framework. The method combines document checks, visual inspections, dimensional verification, electrical continuity and signal transmission tests, calibration evidence, functional performance tests, and punch-list closure. This multi-layered approach ensures that instrumentation systems meet design intent, operational reliability, and compliance requirements. The system applies across Oil & Gas, Petrochemical, Chemical, Power, Water & Wastewater, Mining, Manufacturing, Offshore, and Infrastructure/Marine facilities, providing a universal reference adaptable to sector-specific standards. Worked examples illustrate practical calculations and verification methods, including 4–20 mA scaling, percent-of-span error evaluation, differential-pressure head correction, flow square-root extraction, temperature conversion, and tolerance assessment. These examples are deliberately transparent, showing assumptions, governing equations, input data, acceptance criteria, and reviewer notes to strengthen engineering assurance and training. Inspection and Test Plan (ITP) concepts are embedded, supported by standardized inspection forms, field-release records, commissioning checklists, and maintenance-frequency guidance. The handbook also consolidates an industrial application matrix, enabling project teams to align inspection practices with sector-specific requirements and regulatory frameworks. Lifecycle governance is emphasized through traceability of procurement records, reconciliation of calibration and inspection evidence, closure of deviations via controlled punch lists, and structured turnover documentation. Maintenance readiness is integrated by defining inspection frequencies, reliability indicators, and evidence-based replacement criteria. By combining structured methodology, technical rigor, and lifecycle assurance, the Instrument Check Sheet Handbook delivers a professional, auditable, and field-usable reference. It strengthens technical assurance, minimizes risk, and establishes a credible baseline for safe, efficient, and compliant instrumentation inspection practices across diverse industrial environments.

Rp499.000
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Instrument

INSTRUMENT FORM

The Instrument Form Handbook Version 1.0.1 defines a comprehensive methodology for managing instrument forms across engineering, procurement, construction, commissioning, and lifecycle maintenance. It integrates technical forms with a controlled data architecture, ensuring that each instrument tag can be traced seamlessly across design inputs, datasheets, sizing calculations, material requirements, vendor documents, inspection records, loop checks, test certificates, and final handover records. This structured approach provides consistency, traceability, and quality assurance throughout the project lifecycle. Core topics include instrument index management, datasheet preparation, control valve documentation, and measurement technologies for flow, pressure, temperature, and level. The handbook also covers analyzers, shutdown and alarm logic, I/O and signal management, loop diagrams, hook‑ups, junction boxes, cables, and tubing. Procurement deliverables such as material requisitions and technical bid evaluations are included, alongside factory acceptance testing (FAT), construction inspection, commissioning workflows, calibration procedures, and maintenance planning. Management of change processes and digital database handover requirements are emphasized to ensure that instrument data remains accurate, auditable, and sustainable over time. The handbook provides calculation notes, sample equations, worked examples, material specifications, procurement controls, inspection and test plans, field release forms, commissioning forms, maintenance frequencies, and industrial application matrices. These resources enable engineers and project teams to apply standardized practices across diverse sectors, including oil and gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, and infrastructure/marine facilities. By presenting instrument execution as a closed‑loop process, the handbook ensures that requirements are defined, engineered, reviewed, procured, installed, verified, validated, documented, and sustained. The result is an auditable instrument system that supports safety, quality, integrity, availability, and process performance. The primary intent of the Instrument Form Handbook Version 1.0.1 is to provide a structured, field‑usable reference that combines technical rigor with procedural clarity. It strengthens technical assurance, minimizes risk, and establishes a credible baseline for safe, efficient, and compliant instrumentation engineering across the full lifecycle of industrial assets.

Rp499.000
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Instrument

INSTRUMENT CODE AND STANDARD

The Instrument Code and Standard handbook defines a professional framework for the application of codes and standards in instrument engineering and construction projects. It explains how international standards, owner requirements, and project specifications are translated into consistent engineering deliverables such as tag numbers, drawings, datasheets, I/O data, cable records, inspection forms, and maintenance records. By establishing a unified coding and documentation system, the handbook ensures that every instrument is properly identified, traceable, and aligned with project requirements. The technical content spans measurement principles, final control elements, control and safety systems, hazardous area compliance, electrical interfaces, grounding, tubing, installation practices, testing, commissioning, and reliability assurance. Calculation notes, worked examples, procurement controls, inspection and commissioning forms, and sector‑specific application matrices are included to support practical project execution. These resources provide engineers with transparent methods for applying standards consistently across diverse industrial sectors, including oil and gas, petrochemical, chemical, power generation, water treatment, mining, manufacturing, offshore, and infrastructure projects. A central requirement emphasized throughout the handbook is traceability. Each instrument must have an unambiguous identity, a defined service, a documented design basis, approved materials and ratings, verified installation, traceable calibration, test evidence, and controlled handover data. This traceability framework ensures that instruments are not only compliant with standards but also auditable across the entire lifecycle. The benefits of a consistent coding and standards system are significant. It reduces rework by eliminating ambiguity, strengthens safety assurance by ensuring that critical devices are properly documented and tested, and improves lifecycle maintainability by providing clear records for inspection, calibration, and replacement. The handbook positions coding and standards not as administrative tasks but as integral engineering requirements that directly influence safety, quality, and reliability. Ultimately, the Instrument Code and Standard handbook provides engineers, contractors, and project owners with a structured, auditable, and field‑usable reference. By combining technical rigor, procedural clarity, and lifecycle governance, it establishes a credible baseline for safe, efficient, and compliant instrumentation engineering across multiple industrial sectors.

Rp499.000
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Instrument

INSTRUMENT EXECUTION FLOW AND PROCEDURE

The Instrument Execution Flow and Procedure handbook provides a complete execution flow and procedural reference for instrument engineering across the project and asset lifecycle. It establishes a closed‑loop management process that links front‑end inputs to detailed engineering, procurement, fabrication, construction, testing, commissioning, handover, operation, and maintenance. By presenting execution as a continuous cycle of definition, engineering, review, procurement, installation, verification, validation, documentation, and sustainment, the handbook ensures that instrument systems remain auditable, reliable, and aligned with safety and performance objectives. Core topics include design basis, instrument index, datasheets, P&ID development, safeguarding strategies, measurement technologies, valve systems, analyzers, package interfaces, and integration with DCS, PLC, SIS, and FGS platforms. Industrial networks and cybersecurity are addressed to ensure secure connectivity, while vendor control, FAT/SAT procedures, QA/QC practices, calibration, loop checking, and commissioning workflows provide structured assurance of system integrity. Reliability and documentation requirements are embedded throughout to support long‑term asset performance. The handbook integrates calculation notes, sample equations, worked examples, material specifications, procurement controls, inspection and test plans, field release forms, commissioning forms, maintenance frequencies, and industrial application matrices. These resources enable consistent application across oil and gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, and infrastructure/marine facilities. Execution is presented not as isolated tasks but as a lifecycle governance model. Requirements are defined, engineered, reviewed, procured, installed, verified, validated, documented, and sustained in a traceable manner. This approach ensures that every stage of instrumentation execution contributes to safety, quality, integrity, availability, and process performance. The primary intent of the Instrument Execution Flow and Procedure handbook is to provide engineers, contractors, and project owners with a structured, auditable, and field‑usable reference. By combining technical rigor, procedural clarity, and lifecycle integration, it strengthens technical assurance, minimizes risk, and supports efficient, compliant, and reliable instrumentation management across diverse industrial sectors.

Rp499.000
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Instrument

GENERAL SPECIFICATION INSTRUMENTATION

The General Specification Instrumentation is developed as a consolidated project reference that unifies general technical requirements for industrial instrumentation systems. It provides a comprehensive framework that spans the full discipline of instrumentation, including field measurement devices, final control elements, instrument air systems, tubing and cabling infrastructure, protective enclosures, and control system architecture. The specification also addresses functional safety, fire and gas detection, power supply, grounding, hazardous area compliance, and construction practices. Unlike purely theoretical texts, this document emphasizes practical applicability, ensuring that engineers, contractors, and project teams can rely on it as a usable guide throughout the lifecycle of industrial facilities. The scope extends beyond technical definitions to incorporate calculation notes, material and procurement controls, and Inspection and Test Plan (ITP) concepts. Standardized inspection and calibration forms are provided to reinforce quality assurance, while structured loop check and commissioning workflows ensure system integrity before operational handover. Maintenance frequencies and reliability practices are clearly defined to sustain long‑term performance, with flexibility for tailoring to specific industrial sectors such as oil and gas, petrochemical, power generation, water treatment, and manufacturing. By embedding these practices, the specification promotes reliability and operational excellence across diverse industrial environments. Equally significant, the specification integrates publication‑quality document controls. This guarantees consistency of format, traceability of revisions, and compliance with established project documentation standards. By combining technical requirements with procedural tools, the document establishes a structured methodology that links design, construction, commissioning, and maintenance phases into a coherent and auditable lifecycle. This approach ensures that every stage of the project is documented, verifiable, and aligned with industry best practices. The primary intent of the General Specification Instrumentation is to provide a consolidated reference that enhances standardization, reduces risks of failure, and improves efficiency across all project stages. Its comprehensive coverage supports regulatory compliance while embedding best practices in industrial instrumentation. In this way, the specification functions simultaneously as a technical manual and a project management resource, bridging theoretical knowledge with practical execution. Ultimately, it ensures safe, reliable, and efficient industrial operations while offering a consistent foundation for engineering excellence across multiple sectors.

Rp499.000
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Instrument

PREPARATION INFORMATION FOR INSTRUMENT

The Preparation Information for Instrument Handbook Version 1.0 defines a structured approach for preparing and managing instrumentation information across the EPC lifecycle. It establishes a methodology that integrates project basis, input data, engineering registers, procurement documentation, inspection records, commissioning data, and final asset information into a traceable and auditable framework. Coverage begins with project basis and input data, then develops tag registers, datasheets, process measurement information, control-valve requirements, analyzer data, control-system interfaces, I/O allocation, cause-and-effect logic, installation details, cables and junction boxes, and package interfaces. Procurement documentation, inspection records, commissioning data, and final asset information are embedded to ensure continuity from design through operations. The technical objective is data integrity across documents and systems. Key controls include revision status, source traceability, engineering unit consistency, normal/minimum/maximum conditions, design margins, materials, protection methods, fail-safe behavior, maintainability, hazardous area compliance, vendor deviation control, inspection status, and turnover records. Each chapter emphasizes how instrumentation data must be reconciled with project standards, vendor documentation, and lifecycle requirements. Worked examples illustrate transmitter range selection, 4–20 mA scaling, control-valve sizing concepts, cable voltage-drop checks, junction-box spare allocation, uncertainty allowances, and maintenance-frequency logic. These examples are deliberately transparent, showing assumptions, governing equations, input sources, results, acceptance checks, and reviewer comments. Execution chapters extend into procurement readiness, vendor qualification, receiving inspection, traceability, preservation, and logistics. QA/QC chapters embed inspection and test plan (ITP) matrices, hold and witness points, nonconformance reporting, and acceptance criteria. Commissioning chapters provide structured dossiers, turnover documentation, and reliability indicators. Appendices consolidate industrial-sector application matrices, lifecycle checklists, calculation references, procurement templates, inspection forms, commissioning records, and maintenance logs. Field-style visuals and schematic diagrams are included to support training and project communication, while clearly noting that final construction must rely on project-approved drawings and verified data. By combining structured methodology, technical rigor, and lifecycle governance, the Preparation Information for Instrument Handbook delivers a professional, auditable, and field-usable reference. It strengthens technical assurance, minimizes risk, and establishes a credible baseline for safe, efficient, and compliant instrumentation data preparation across oil and gas, petrochemical, chemical, power, water, mining, manufacturing, offshore, marine, and infrastructure projects.

Rp499.000
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Instrument

SPLIT OF WORK BETWEENN INSTRUMENT OTHER DISCIPLINES

The Split of Work Between Instrument and Other Disciplines Handbook Version 1.0 provides a comprehensive framework for defining technical boundaries and responsibilities between Instrument Engineering and other disciplines across the full project lifecycle. It establishes a methodology that integrates engineering design, procurement, fabrication, logistics, construction, commissioning, and asset maintenance into a traceable and auditable workflow. Coverage includes deliverable ownership, design inputs and outputs, calculations, material specifications, inspection records, and maintenance procedures. Key interfaces are addressed with Process, Piping, Mechanical, Electrical, Civil/Structural, Telecom, HVAC, Fire Protection/HSE, package vendors, construction teams, and commissioning groups. Each chapter emphasizes how instrument engineering interacts with adjacent disciplines to ensure consistency, reliability, and compliance with project standards. Special focus is placed on control systems, safety instrumented systems (SIS), emergency shutdown (ESD), fire and gas (F&G) systems, industrial networks, field instruments, control valves, analyzers, metering systems, cabling, tubing, procurement, factory acceptance testing (FAT), inspection, and turnover documentation. Worked examples illustrate how interface matrices, responsibility registers, and deliverable workflows are reconciled with engineering inputs, vendor packages, and construction sequencing. Execution chapters extend into procurement control, vendor qualification, documentation requirements, receiving inspection, traceability, preservation, and logistics. QA/QC chapters embed inspection and test plan (ITP) matrices, hold and witness points, nonconformance reporting, and acceptance criteria. Commissioning chapters provide structured dossiers, turnover records, and reliability indicators. Appendices consolidate interface registers, calculation references, procurement templates, inspection forms, commissioning checklists, maintenance-frequency guidance, and industrial application matrices. Lifecycle deliverables emphasize risk-based inspection, reliability tracking, and evidence-based replacement criteria. The handbook emphasizes that every interface is a controlled technical transaction. Each transaction must have an originator, receiver, required data, format, review status, due date, verification method, change-control path, and closure evidence. By combining structured methodology, technical rigor, and lifecycle governance, the Split of Work Between Instrument and Other Disciplines Handbook delivers a professional, auditable, and field-usable reference. It strengthens technical assurance, minimizes risk, and establishes a credible baseline for safe, efficient, and compliant multidisciplinary collaboration across oil and gas, petrochemical, chemical, power, water, mining, manufacturing, offshore, marine, and infrastructure projects.

Rp499.000
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Instrument

GUIDANCE INSTRUMENT ENGINEERING

The Guidance Instrument Engineering Handbook Version 1.0 consolidates essential practices required to develop, procure, fabricate, install, inspect, commission, operate, and maintain industrial instrumentation and control systems. It establishes a lifecycle methodology that integrates engineering design, procurement readiness, fabrication sequencing, installation practices, inspection records, commissioning verification, and maintenance strategies into a traceable and auditable framework. Coverage includes field sensors and transmitters, control valves and final elements, analyzers, junction boxes, cabinets, wiring and cabling interfaces, impulse tubing, instrument air systems, control and shutdown systems, and vendor packages. Each technical chapter emphasizes design intent, material specification, fabrication tolerances, installation sequencing, inspection points, and lifecycle reliability. Execution chapters extend into procurement control, vendor qualification, documentation requirements, receiving inspection, traceability, preservation, and logistics. QA/QC chapters embed inspection and test plan (ITP) matrices, hold and witness points, nonconformance reporting, and acceptance criteria. Commissioning chapters provide structured dossiers, turnover documentation, and reliability indicators. Worked examples illustrate sizing calculations for control valves, actuator torque checks, impulse line routing, signal transmission verification, and reliability screening. These examples are deliberately transparent, showing assumptions, governing equations, input sources, results, acceptance checks, and reviewer comments. Appendices consolidate calculation references, procurement templates, inspection forms, commissioning checklists, maintenance-frequency guidance, and industrial application matrices. Lifecycle deliverables emphasize risk-based inspection, reliability tracking, and evidence-based replacement criteria. The handbook emphasizes that instrumentation is not an isolated discipline but a controlled engineering system linking process design, mechanical interfaces, electrical integration, and operational reliability. Documentation, inspection records, functional testing, and maintenance are treated as integral engineering requirements rather than administrative add-ons. By combining structured methodology, technical rigor, and lifecycle governance, the Guidance Instrument Engineering Handbook delivers a professional, auditable, and field-usable reference. It strengthens technical assurance, minimizes risk, and establishes a credible baseline for safe, efficient, and compliant instrumentation engineering across oil and gas, petrochemical, chemical, power, water, mining, manufacturing, offshore, marine, and infrastructure projects.

Rp499.000
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Piping

OPERATION MANUAL MATERIAL TAKE OFF HANDBOOK

The Operation Manual Material Take-Off (MTO) Handbook Version 1.0 provides an end-to-end operating framework for managing material take-off in industrial projects. It establishes a lifecycle methodology that integrates engineering inputs, procurement readiness, fabrication sequencing, construction logistics, inspection records, commissioning verification, and lifecycle spare management into a traceable and auditable system. Coverage begins with MTO maturity definition, source-document hierarchy, work breakdown structure (WBS) and cost breakdown structure (CBS) alignment, and commodity coding. Technical chapters emphasize piping-class interpretation, manual P&ID take-off, isometric extraction, and 3D-model reconciliation. Indirect material quantities, equipment/package interfaces, and BOM/BOQ reconciliation are addressed to ensure consistency between engineering deliverables, procurement orders, and site material control. The technical method is based on four core controls: definition control (what the item is), quantity control (how much is required), revision control (which design state is valid), and custody control (where the material is from purchase through installation). Worked examples illustrate quantity variance, theoretical pipe weight, surface-area calculations, gross procurement quantity, material balance, and inspection completion metrics. These examples are illustrative and must be reconciled with project-adopted codes, verified material properties, and engineering approval. Execution chapters extend into procurement control, vendor documentation, receiving inspection, traceability, preservation, and logistics. QA/QC chapters embed inspection and test plan (ITP) matrices, hold and witness points, nonconformance reporting, and acceptance criteria. Commissioning chapters provide structured dossiers, turnover documentation, and reliability indicators. Appendices consolidate calculation references, procurement templates, inspection forms, field-release records, commissioning checklists, maintenance-frequency guidance, and industrial application matrices. Lifecycle deliverables emphasize risk-based inspection, reliability tracking, and evidence-based replacement criteria. The handbook emphasizes that MTO is not a one-time calculation but a controlled workflow linking design basis, procurement, fabrication, construction, and operations. By combining structured methodology, technical rigor, and lifecycle governance, the Operation Manual Material Take-Off Handbook delivers a professional, auditable, and field-usable reference. It strengthens technical assurance, minimizes procurement risk, and establishes a credible baseline for safe, efficient, and compliant material management across oil and gas, petrochemical, chemical, power, water, mining, manufacturing, offshore, marine, and infrastructure projects

Rp499.000
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Piping

PIPING JOB DATA BOM BOQ

The Piping Job Data BOM BOQ Handbook Version 1.0 provides a comprehensive framework for preparing, verifying, and managing piping bill of materials (BOM) and bill of quantities (BOQ) across industrial projects. It establishes a lifecycle methodology that integrates engineering inputs, material requisition, procurement control, fabrication readiness, construction sequencing, inspection records, commissioning verification, and maintenance strategies into a traceable and auditable reference. Coverage includes the definition of BOM structures, coding logic, material take-off (MTO) procedures, and BOQ compilation aligned with project specifications. Technical chapters emphasize pipe, fittings, flanges, gaskets, bolting, valves, supports, and specialty items. Each section reconciles design basis with procurement quantities, ensuring consistency between engineering documents, vendor offers, fabrication shops, warehouses, and construction teams. Worked examples demonstrate screening calculations for pipe mass, bolt torque, gasket seating stress, valve actuator sizing, support loading, corrosion allowances, fabrication yield, welding consumables, inspection completion, shipping mass, warehouse area, lifting loads, and spares philosophy. These examples are illustrative and must be reconciled with governing codes, certified material properties, and project-specific inputs. Execution chapters extend into procurement readiness, vendor documentation, receiving inspection, traceability, preservation, and logistics. QA/QC chapters embed inspection and test plan (ITP) matrices, hold and witness points, nonconformance reporting, and acceptance criteria. Commissioning chapters provide structured dossiers, turnover documentation, and reliability indicators. Appendices consolidate calculation references, procurement templates, inspection forms, field-release records, commissioning checklists, maintenance-frequency guidance, and industrial application matrices. Lifecycle deliverables emphasize risk-based inspection, reliability tracking, and evidence-based replacement criteria. The handbook emphasizes traceability: every BOM or BOQ entry must be connected to a design input, calculation, vendor requirement, or lifecycle need. This approach reduces procurement errors, minimizes field changes, and strengthens technical assurance. By combining structured methodology, technical rigor, and lifecycle governance, the Piping Job Data BOM BOQ Handbook delivers a professional, auditable, and field-usable reference. It establishes a credible baseline for safe, efficient, and compliant piping material management across oil and gas, petrochemical, chemical, power, water, mining, manufacturing, offshore, marine, and infrastructure projects.

Rp499.000
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Piping

PIPING MATERIAL SPECIFICATION

The Piping Material Specification (PMS) Handbook Version 1.0.1 provides a structured engineering reference that bridges process design intent with the physical components purchased, fabricated, and installed in industrial facilities. A robust PMS converts pressure, temperature, fluid properties, corrosion mechanisms, statutory requirements, and operational expectations into a controlled family of piping classes that can be consistently applied by engineering, procurement, vendors, fabrication shops, warehouses, construction teams, and operations personnel. The handbook is organized around the full engineering lifecycle. It begins with governance, design basis, and class coding, then progresses through pipe, fittings, flanges, gaskets, bolting, valves, and specialty items. Service-specific metallurgy is developed for sour service, hydrogen, cryogenic, elevated-temperature, oxygen, water, and other applications. Later chapters address calculations, procurement, material take-off, traceability, inspection, welding, preservation, construction, commissioning, and reliability. Each chapter combines theory, design controls, engineering check tables, inspection points, representative 3D schematics, field-style visualizations, calculation notes, and lifecycle considerations. This framework can be used to train engineers, prepare project specifications, review vendor offers, build inspection and test plans (ITPs), and audit site material control. Worked examples illustrate how screening values, corrosion allowances, and pressure-thickness checks are reconciled with governing codes and project-specific inputs. Quality assurance is embedded through inspection records, material certificates, positive material identification (PMI), heat-number traceability, nondestructive examination (NDE), preservation, and turnover documentation. Procurement chapters emphasize vendor qualification, bid evaluation, and documentation control, ensuring that every piping class is supported by verifiable technical evidence. The handbook is deliberately sector-neutral, with application guidance for oil and gas, petrochemical, chemical, power, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine facilities. Individual projects are expected to tailor the guidance through an approved material selection basis and piping class register rather than applying any example class without verification. By combining structured methodology, technical rigor, and lifecycle governance, the Piping Material Specification Handbook delivers a professional, auditable, and field-usable reference. It strengthens technical assurance, minimizes risk, and establishes a credible baseline for safe, efficient, and compliant piping material specification across industrial projects.

Rp499.000
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Piping

PROCEDURE PIPING MATERIAL REQUISITION

The Procedure Piping Material Requisition Handbook Version 1.0 presents a structured methodology for requisitioning piping materials in EPC and industrial projects. It establishes a lifecycle framework that connects engineering source documents to procurement quantities and specifications, ensuring traceability from design basis through installation and commissioning. Coverage includes requisitioning bulk piping materials and specialty items, supplier qualification, bid clarification, technical evaluation, vendor documentation, manufacturing, inspection, testing, packing, logistics, receiving, and material custody. The handbook emphasizes controls that ensure procurement decisions are defensible, auditable, and aligned with project codes and standards. Technical chapters provide screening formulas and worked examples for quantity allowances, pipe mass, rating margin, actuator torque, bolt torque, strainer area, support loading, corrosion life, schedule float, fabrication yield, welding heat input, inspection completion, traceability, test pressure, shipping mass, warehouse area, lifting loads, test volume, spares, and reliability indicators. These examples are illustrative and must be reconciled with project-adopted codes, verified material properties, actual geometry, load combinations, and engineering approval. Quality requirements are integrated through inspection and test planning, hold and witness points, material certificates, heat-number traceability, positive material identification (PMI), nondestructive examination (NDE), factory acceptance, release, receiving inspection, preservation, nonconformance/deviation management, field inspection, and turnover records. Procurement chapters highlight vendor qualification, bid evaluation, and documentation control, ensuring that every requisition is supported by verifiable technical and quality evidence. Appendices consolidate calculation references, procurement templates, inspection and test plan formats, field-release forms, commissioning records, maintenance-frequency guidance, industrial application matrices, and spare-parts philosophy. Lifecycle deliverables emphasize risk-based inspection, reliability tracking, and evidence-based replacement criteria. The objective is to establish a defensible material chain from design basis to installed and commissioned asset. By combining structured methodology, technical rigor, and lifecycle governance, the Procedure Piping Material Requisition Handbook delivers a professional, auditable, and field-usable reference. It strengthens technical assurance, minimizes procurement risk, and establishes a credible baseline for safe, efficient, and compliant piping material requisition across oil and gas, petrochemical, chemical, power, water, mining, manufacturing, offshore, marine, and infrastructure projects.

Rp499.000
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Piping

DRAWING PRACTICE FOR PIPING

The Drawing Practice for Piping Handbook Version 1.0 provides an integrated reference for producing piping drawings from controlled engineering inputs through final as-built documentation. It establishes a lifecycle methodology that reconciles drawing governance, standardized presentation, dimensional control, coordination with equipment and structures, 3D model discipline, isometric and spool documentation, material traceability, quality review, and field feedback into a traceable and auditable framework. Coverage emphasizes drawing governance and standardized presentation to ensure consistency across engineering deliverables. Dimensional control chapters highlight tolerances, alignment, and interface checks with equipment and structures. 3D model discipline is addressed through layout rules, clash detection, and integration with plant design systems. Isometric and spool documentation sections provide guidance on fabrication readiness, material traceability, and construction sequencing. Quality review chapters embed inspection points, drawing registers, and field feedback loops to ensure constructability and maintainability. The technical approach links drawing preparation to lifecycle needs including procurement, fabrication, welding, nondestructive examination (NDE), shipping, heavy lifting, installation, testing, commissioning, maintenance, and reliability. Sector-specific considerations are included for oil and gas, petrochemical, chemical, power, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine applications. Worked examples demonstrate how drawing notes, dimensional checks, and material callouts are reconciled with procurement and fabrication requirements. Calculation-note templates illustrate how assumptions, governing equations, and acceptance criteria are documented within drawing packages. Vendor and interface requirements are emphasized to ensure traceability and compliance with project standards. Appendices consolidate material and procurement controls, inspection and test plan (ITP) concepts, inspection and field-release forms, maintenance-frequency examples, industrial application matrices, QA/QC checklists, drawing registers, and glossary references. Field-style visuals and schematic diagrams are included to support training and project communication, while clearly noting that final construction must rely on project-approved drawings and verified dimensions. By combining structured methodology, technical rigor, and lifecycle governance, the Drawing Practice for Piping Handbook delivers a professional, auditable, and field-usable reference. It strengthens technical assurance, minimizes risk, and establishes a credible baseline for safe, efficient, and compliant piping drawing preparation, review, and execution across industrial projects.

Rp499.000
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Piping

DESIGN WORKFLOW FOR PIPING

The Design Workflow for Piping Handbook Version 1.0 presents a complete and integrated workflow for piping design, beginning with the receipt of project inputs and extending through final handover. It establishes a lifecycle methodology that reconciles design basis development, P&ID and line-list interface, 3D layout, equipment piping, pipe racks, stress and support coordination, valve and instrument access, material class control, fabrication deliverables, model review, construction, precommissioning, and commissioning into a traceable and auditable framework. Each technical chapter is structured around workflow tasks, inputs and outputs, design verification points, calculation notes, worked examples, materials and procurement controls, inspection and maintenance considerations, industry applicability, and records that should be retained. The visuals are intentionally varied from chapter to chapter to support rapid technical orientation and reinforce learning. Design chapters emphasize arrangement principles, hydraulic and thermal calculations, flexibility and support integration, accessibility for valves and instruments, and constructability. Stress and support coordination sections reconcile analytical results with practical support schedules and spring-hanger settings. Material control chapters highlight piping classes, procurement readiness, vendor documentation, and traceability. Execution chapters extend into fabrication tolerances, welding procedures, consumable management, nondestructive examination (NDE), coating, insulation, preservation, and installation sequencing. QA/QC chapters embed inspection and test plan (ITP) matrices, hold and witness points, dimensional checks, nonconformance reporting, and acceptance criteria. Commissioning chapters provide structured dossiers, turnover documentation, and reliability indicators. Appendices consolidate calculation examples, procurement-control templates, inspection and test plan guidance, field-release and commissioning forms, maintenance frequencies, industrial-sector application matrices, and deliverable/checklist registers. Worked examples are deliberately transparent, showing assumptions, governing equations, input sources, results, acceptance checks, and reviewer comments. By combining structured methodology, technical rigor, and lifecycle governance, the Design Workflow for Piping Handbook delivers a professional, auditable, and reusable training framework. It strengthens technical assurance, minimizes risk, and establishes a credible baseline for safe, efficient, and compliant piping design execution across oil and gas, petrochemical, chemical, power, water, mining, manufacturing, offshore, marine, and infrastructure projects.

Rp499.000
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Piping

DESIGN CRITERIA FOR PIPING ARRANGEMENT

The Design Criteria for Piping Arrangement Handbook provides a structured reference for developing, reviewing, and releasing piping arrangements from basic engineering through commissioning and maintenance. It establishes a lifecycle methodology that integrates design hierarchy, plot-plan integration, equipment arrangement, pipe racks, pumps, vessels, exchangers, compressors, tank farms, utilities, safety and accessibility, flexibility and supports, construction, and handover into a traceable and auditable framework. Technical guidance emphasizes arrangement principles, dimensional screening values, hydraulic and thermal calculations, vendor and interface requirements, material and procurement controls, construction sequencing, inspection and test plan (ITP) logic, inspection forms, commissioning readiness, maintenance frequencies, and sector-specific application guidance. Each chapter reconciles design intent with practical constructability, ensuring that piping layouts are not only technically compliant but also field-usable and maintainable. The handbook highlights traceability as a core principle: every arrangement decision must be connected to a design input, risk assessment, calculation, vendor requirement, review action, or lifecycle need. This approach provides a more reliable basis for 3D model reviews and reduces field changes, forced fit-up, and inaccessible equipment. Worked examples illustrate dimensional screening, hydraulic checks, flexibility considerations, and support integration, showing assumptions, governing equations, input sources, results, acceptance checks, and reviewer comments. Execution chapters extend into procurement readiness, vendor documentation, receiving inspection, traceability, fabrication tolerances, welding quality, and installation sequencing. QA/QC chapters embed ITP matrices, hold and witness points, nonconformance reporting, and acceptance criteria. Commissioning chapters provide structured dossiers, turnover documentation, and reliability indicators. Appendices consolidate calculation references, dimensional tables, inspection forms, project-ready checklists, commissioning records, maintenance logs, and industrial application matrices. Field-style visuals and schematic diagrams are included to support training and project communication, while clearly noting that final construction must rely on project-approved drawings and verified dimensions. By combining structured methodology, technical rigor, and lifecycle governance, the Design Criteria for Piping Arrangement Handbook delivers a professional, auditable, and field-usable reference. It strengthens technical assurance, minimizes risk, and establishes a credible baseline for safe, efficient, and compliant piping arrangement design and execution across oil and gas, petrochemical, chemical, power, water, mining, manufacturing, offshore, marine, and infrastructure projects.

Rp499.000
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Piping

EXECUTION PROCEDURE FOR PIPING LAYOUT

The Execution Procedure for Piping Layout Handbook Version 1.0 provides a comprehensive framework for planning, designing, verifying, and executing piping layouts across industrial facilities. It establishes a lifecycle methodology that integrates design intent, engineering calculations, procurement readiness, fabrication controls, installation practices, inspection records, commissioning verification, and maintenance strategies into a traceable and auditable system. Coverage includes the establishment of design inputs, load cases, sustained and expansion stress checks, occasional loads, flexibility analysis, support and restraint behavior, equipment nozzle loads, rotating equipment interfaces, dynamic events, seismic and wind considerations, buried piping, special materials, small-bore piping, structural interfaces, fatigue, and finite element analysis. Each chapter emphasizes design philosophy, modeling methods, governing equations, worked-example logic, material considerations, inspection points, and field implementation guidance. Execution chapters extend beyond calculation to include procurement control, fabrication tolerances, welding procedures, consumable management, nondestructive examination (NDE), coating, insulation, preservation, and installation sequencing. QA/QC chapters embed inspection and test plan (ITP) matrices, hold and witness points, dimensional checks, nonconformance reporting, and acceptance criteria. Commissioning chapters provide structured dossiers, turnover documentation, and reliability indicators. Primary deliverables include design basis and piping stress criteria, line and equipment input registers, load-case matrices, code stress reports, displacement plots, support reaction summaries, and equipment nozzle load reports. Additional outputs encompass support and spring-hanger schedules, structural load summaries, special analysis notes, finite element analysis reports, ITP/check sheets, field-release records, commissioning walkdown forms, and maintenance inspection templates. Worked examples illustrate sustained stress checks, thermal expansion calculations, nozzle load screening, and simplified fatigue assessments. These examples are deliberately transparent, showing assumptions, governing equations, input sources, results, acceptance checks, and reviewer comments. By combining structured methodology, technical rigor, and lifecycle governance, the Execution Procedure for Piping Layout Handbook delivers a professional, auditable, and field-usable reference. It strengthens technical assurance, minimizes risk, and establishes a credible baseline for safe, efficient, and compliant piping layout execution across oil and gas, petrochemical, chemical, power, water, mining, manufacturing, offshore, marine, and infrastructure projects

Rp499.000
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Piping

CHECK LIST FOR PIPING LAYOUT

The Check List for Piping Layout Handbook Version 1.0 provides an integrated approach to piping structural analysis and layout verification for industrial facilities. It establishes a lifecycle methodology that reconciles design inputs, calculation procedures, verification steps, procurement controls, fabrication requirements, installation practices, inspection records, commissioning verification, and maintenance strategies into a traceable and auditable framework. Coverage includes the establishment of design inputs, load cases, sustained and expansion stress checks, occasional loads, flexibility analysis, support and restraint behavior, equipment nozzle loads, rotating equipment interfaces, dynamic events, seismic and wind considerations, buried piping, special materials, small-bore piping, structural interfaces, fatigue, and finite element analysis (FEA). Each chapter contains design intent, modeling methods, governing equations, worked-example logic, material considerations, inspection points, and field implementation guidance. Primary deliverables include design basis and piping stress criteria, line and equipment input registers, and load-case matrices. Analytical outputs encompass code stress reports, displacement plots, support reaction summaries, and equipment nozzle load reports. Support and spring-hanger schedules, structural load summaries, special analysis notes, and FEA reports are integrated into project documentation. Quality assurance deliverables include inspection and test plans (ITPs), check sheets, field-release records, commissioning walkdown forms, and maintenance inspection templates. Worked examples illustrate sustained stress checks, thermal expansion calculations, nozzle load screening, and simplified fatigue assessments. These examples are deliberately transparent, showing assumptions, governing equations, input sources, results, acceptance checks, and reviewer comments. Material and procurement chapters emphasize piping classes, mill test certificate (MTC) and positive material identification (PMI) traceability, valve and gasket control, preservation, receiving inspection, and vendor documentation. Maintenance chapters highlight inspection frequencies, defect management, and preventive maintenance strategies, embedding reliability concepts into long-term asset performance. Reliability records and troubleshooting guidance link observed deterioration to inspection intervals and repair decisions. By combining structured methodology, technical rigor, and lifecycle governance, the Check List for Piping Layout Handbook delivers a professional, auditable, and field-usable reference. It strengthens technical assurance, minimizes risk, and establishes a credible baseline for safe, efficient, and compliant piping layout and structural analysis across oil and gas, petrochemical, chemical, power, water, mining, manufacturing, offshore, marine, and infrastructure projects.

Rp499.000
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Piping

PIPING STRUCTURAL ANALYSIS

The Piping Structural Analysis Handbook Version 1.0 provides an integrated approach to the structural analysis of piping systems in industrial facilities. It establishes a lifecycle methodology that reconciles design inputs, calculation procedures, verification steps, procurement controls, fabrication requirements, installation practices, inspection records, commissioning verification, and maintenance strategies into a traceable and auditable framework. Coverage includes the establishment of design inputs, load cases, sustained and expansion stress checks, occasional loads, flexibility analysis, support and restraint behavior, equipment nozzle loads, rotating equipment interfaces, dynamic events, seismic and wind considerations, buried piping, special materials, small-bore piping, structural interfaces, fatigue, and finite element analysis (FEA). Each chapter contains design intent, modeling methods, governing equations, worked-example logic, material considerations, inspection points, and field implementation guidance. Primary deliverables include design basis and piping stress criteria, line and equipment input registers, and load-case matrices. Analytical outputs encompass code stress reports, displacement plots, support reaction summaries, and equipment nozzle load reports. Support and spring-hanger schedules, structural load summaries, special analysis notes, and FEA reports are integrated into project documentation. Quality assurance deliverables include inspection and test plans (ITPs), check sheets, field-release records, commissioning walkdown forms, and maintenance inspection templates. Worked examples illustrate sustained stress checks, thermal expansion calculations, nozzle load screening, and simplified fatigue assessments. These examples are deliberately transparent, showing assumptions, governing equations, input sources, results, acceptance checks, and reviewer comments. Material and procurement chapters emphasize piping classes, mill test certificate (MTC) and positive material identification (PMI) traceability, valve and gasket control, preservation, receiving inspection, and vendor documentation. Maintenance chapters highlight inspection frequencies, defect management, and preventive maintenance strategies, embedding reliability concepts into long-term asset performance. Reliability records and troubleshooting guidance link observed deterioration to inspection intervals and repair decisions. By combining structured methodology, technical rigor, and lifecycle governance, the Piping Structural Analysis Handbook delivers a professional, auditable, and field-usable reference. It strengthens technical assurance, minimizes risk, and establishes a credible baseline for safe, efficient, and compliant piping structural analysis across oil and gas, petrochemical, chemical, power, water, mining, manufacturing, offshore, marine, and infrastructure projects.

Rp499.000
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Piping

ANGLE SUPPORT

The Angle Support Handbook Version 1.0 provides a detailed technical framework for the engineering, fabrication, inspection, installation, commissioning, and maintenance of angle support systems used in industrial piping and structural applications. It establishes a lifecycle methodology that integrates design, material specification, fabrication tolerances, installation practices, inspection requirements, and maintenance strategies into a traceable and auditable reference. Coverage includes support function and selection, load cases, support spacing, structural calculations, weld and anchor verification, material specification, corrosion protection, procurement control, fabrication workflow, inspection and test plan (ITP) requirements, field installation, thermal movement, vibration response, and maintenance frequencies. Industrial application guidance is provided for oil and gas, petrochemical, chemical, power, water, mining, manufacturing, offshore, and infrastructure/marine sectors. Technical chapters emphasize how piping flexibility and structural interface results are reconciled with support design. Core calculation concepts include bracket bending, bolt forces, weld demand, thermal friction, serviceability checks, and dynamic considerations. Worked examples use transparent hand-calculation methods to illustrate screening approaches, while clearly noting that final project calculations must use applicable design standards, certified material properties, actual geometry, load combinations, and formal engineering approval. Execution chapters extend into procurement readiness, vendor documentation, receiving inspection, traceability, and fabrication tolerances. Installation chapters highlight alignment, anchor placement, welding quality, and constructability. QA/QC chapters embed ITP matrices, hold and witness points, nonconformance reporting, and acceptance criteria. Commissioning chapters provide structured records, turnover documentation, and reliability indicators. Appendices consolidate calculation references, material tables, inspection forms, project-ready checklists, and lifecycle deliverables. Maintenance chapters emphasize inspection frequencies, defect management, and preventive maintenance strategies, embedding risk-based planning into long-term asset performance. By combining structured methodology, technical rigor, and lifecycle governance, the Angle Support Handbook delivers a professional, auditable, and field-usable reference. It strengthens technical assurance, minimizes risk, and establishes a credible baseline for safe, efficient, and compliant angle support design, fabrication, installation, and maintenance across industrial projects.

Rp499.000
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Piping

HANGER SUPPORT

The Hanger Support Handbook Version 1.0 provides an integrated engineering reference for supporting and restraining industrial piping systems. It establishes a lifecycle methodology that integrates design, selection, fabrication, installation, inspection, commissioning, and maintenance into a traceable and auditable framework. Coverage includes rigid hangers, clamps, rods, variable and constant spring supports, shoes, saddles, guides, line stops, anchors, hold-downs, and dynamic restraints. Technical chapters link piping flexibility results to support selection, load transfer, and structural interface design. Material specification, fabrication controls, installation tolerances, inspection plans, commissioning settings, and maintenance practices are embedded to ensure reliability and compliance with project standards. Core calculation concepts include thermal growth, tributary weight, rod stress, support reactions, spring rate and load variation, friction forces, structural member checks, and dynamic considerations. Worked examples illustrate how assumptions, governing equations, and input data are reconciled with measurable acceptance criteria. Transparent calculation notes show units, calculation paths, and reviewer comments. Execution chapters extend into procurement controls, vendor documentation, inspection and test plan (ITP) matrices, field-release records, and commissioning forms. Maintenance chapters emphasize inspection frequencies, defect management, and preventive maintenance strategies, embedding risk-based planning into long-term asset performance. Application guidance is provided for oil and gas, petrochemical, chemical, power, water, mining, manufacturing, offshore, and infrastructure/marine sectors. Each chapter includes technical tables, schematic diagrams, field-style visual references, workflow charts, checklists, and lifecycle deliverables. Appendices consolidate calculation references, material tables, inspection forms, project-ready checklists, and records. The handbook emphasizes that every support is treated as a controlled engineering element. A support is acceptable only when its design, material, fabrication, installation, inspection, commissioning, and maintenance are demonstrably under control. By combining structured methodology, technical rigor, and lifecycle governance, the Hanger Support Handbook delivers a professional, auditable, and field-usable reference. It strengthens technical assurance, minimizes risk, and establishes a credible baseline for safe, efficient, and compliant piping support design and execution across industrial projects.

Rp499.000
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Piping

COPPER TUBE

The Copper Tube Handbook Version 1.0 provides an integrated engineering reference for the design, construction, and lifecycle management of copper tube systems from concept through decommissioning. It establishes a structured methodology that reconciles material properties, hydraulic performance, fabrication practices, installation procedures, inspection requirements, and maintenance strategies into a traceable and auditable framework. Coverage includes commercially pure copper tube and commonly specified product forms used in plumbing, HVAC/refrigeration, medical gas distribution, instrumentation, heat-transfer systems, and selected industrial services. Technical chapters explain material grades, temper, dimensions, fittings, and joining methods. Hydraulic sizing, pressure design, thermal expansion, bending, corrosion control, insulation, supports, and cleanliness are addressed to ensure mechanical integrity and operational reliability. Execution chapters extend into project readiness, material requisitions, vendor documentation, receiving inspection, traceability, packaging, lifting, site installation, inspection and test plan (ITP) control, dimensional inspection, pressure testing, flushing, commissioning, and turnover. Worked examples demonstrate tube weight determination, flow velocity, Reynolds number, pressure drop, thermal expansion, and related screening calculations. These examples are deliberately transparent, showing assumptions, governing equations, input sources, results, acceptance checks, and reviewer comments. Appendices consolidate material data-sheet templates, procurement controls, inspection and test plans, field-release forms, commissioning records, maintenance-frequency guidance, industrial application matrices, and field checklists. Technical tables summarize dimensional standards, material properties, inspection methods, and acceptance criteria. Field-style visuals and schematic diagrams are included to support training and project communication. The handbook emphasizes that documentation, inspection records, cleanliness, corrosion control, and lifecycle reliability are integral engineering requirements rather than administrative add-ons. Maintenance chapters highlight inspection frequencies, defect management, and preventive maintenance strategies, embedding risk-based planning into long-term asset performance. By combining structured methodology, technical rigor, and lifecycle governance, the Copper Tube Handbook delivers a professional, auditable, and field-usable reference. It strengthens technical assurance, minimizes risk, and establishes a credible baseline for safe, efficient, and compliant copper tube system design, fabrication, installation, and maintenance across industrial projects.

Rp499.000
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Piping

RING OF PIPING

The Ring of Piping Handbook Version 1.0 presents a comprehensive engineering framework for the design and lifecycle management of closed-loop piping systems used to distribute liquids, gases, and utilities in industrial facilities. It establishes a structured methodology that integrates reliability philosophy, hydraulic distribution, pressure and temperature design, flexibility analysis, supports, materials, corrosion control, valves, instruments, detailed layout, fabrication, logistics, installation, inspection, testing, commissioning, operations, and reliability into a traceable and auditable reference. Technical sections include governing equations and worked examples for velocity, Reynolds number, pressure drop, pressure-thickness screening, thermal expansion, support reactions, and remaining-life estimation. These examples are deliberately transparent, showing assumptions, governing relationships, input sources, results, acceptance checks, and reviewer comments. Material and procurement chapters emphasize piping classes, mill test certificate (MTC) and positive material identification (PMI) traceability, valve and gasket control, preservation, receiving inspection, and vendor documentation. Quality sections provide inspection and test plans (ITPs), field-release records, pressure-test controls, commissioning forms, and maintenance frequencies. Execution chapters extend into fabrication tolerances, welding procedures, consumable control, nondestructive examination (NDE), coating, insulation, preservation, and installation sequencing. Commissioning chapters provide structured dossiers, turnover documentation, and reliability indicators. The handbook uses original engineering schematics and field-style reference visualizations to support learning and project communication. Each chapter contains technical tables, schematic diagrams, workflow charts, checklists, and lifecycle deliverables. Figures are illustrative and intended for training and communication purposes; they are not construction-issued drawings. Final design, fabrication, and installation must always use project-approved drawings and verified dimensions. Maintenance chapters emphasize inspection frequencies, defect management, and preventive maintenance strategies. Reliability records and failure-mode troubleshooting link observed deterioration to inspection intervals and repair decisions, embedding risk-based planning into long-term asset management. By combining structured methodology, technical rigor, and lifecycle governance, the Ring of Piping Handbook delivers a professional, auditable, and field-usable reference. It strengthens technical assurance, minimizes risk, and establishes a credible baseline for safe, efficient, and compliant closed-loop piping system design, fabrication, installation, and operation across industrial projects.

Rp499.000
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Piping

HOSE OF PIPING

The Hose of Piping Handbook Version 1.0 provides an integrated engineering framework for hose assemblies used as flexible elements in process, utility, hydraulic, transfer, marine, offshore, and temporary piping services. It establishes a lifecycle methodology that integrates design, fabrication, installation, inspection, commissioning, operation, and maintenance into a traceable and auditable reference. Coverage includes elastomeric, fluoropolymer-lined, corrugated metallic, composite, and thermoplastic/hydraulic hose constructions. End connections such as flanged, threaded, quick-connect, and dry-break types are addressed with emphasis on sealing reliability and mechanical integrity. Technical chapters highlight pressure-temperature derating, flow and pressure-drop effects, minimum bend radius, vacuum resistance, thermal movement, vibration response, chemical compatibility, static electricity control, fire protection, routing, support, and hose management. Lifecycle sections extend into assembly fabrication, crimping and swaging, metallic-end welding, quality plans, inspection and test plan (ITP) logic, material traceability, inspection acceptance criteria, pressure, leak, vacuum, and electrical testing, cleaning, preservation, packaging, site installation, lifting, pre-commissioning, commissioning, operation, and preventive maintenance. Risk-based inspection, reliability tracking, failure analysis, procurement control, spare-parts philosophy, and sector-specific applications are included to support EPC and operating organizations. Engineering examples use fundamental relationships such as 𝑄 = 𝐴 ⋅ 𝑣 for flow, Darcy–Weisbach pressure loss, Reynolds number, axial pressure thrust 𝐹 = 𝑃 ⋅ 𝐴 , thermal growth Δ 𝐿 = 𝛼 𝐿 Δ 𝑇 , temperature derating, proof-test ratios, and basic reliability indicators. These examples are deliberately illustrative and not substitutes for vendor-certified design limits. They emphasize the importance of organizing assumptions, units, checks, and acceptance criteria while reconciling results with governing codes and project-specific standards. Appendices consolidate formula references, selection forms, material specifications, corrosion controls, procurement and vendor data requirements, ITP templates, receiving and storage checks, installation and field-release forms, pre-commissioning and commissioning records, maintenance and inspection templates, failure/RCA/MOC forms, industrial-sector application matrices, and references with photo/illustration credits. The intended outcome is a hose-management system in which every safety- or production-critical hose can be identified by tag, matched to its service, verified against its approved datasheet and vendor certificate, installed without twist or over-bending, inspected at a risk-based frequency, and retired or replaced on evidence-based criteria.

Rp499.000
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Piping

BEND OF PIPING

The Bend of Piping Handbook Version 1.0 provides a comprehensive technical framework for pipe bends used in oil and gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, marine, and infrastructure applications. It establishes a lifecycle methodology that integrates design, fabrication, installation, inspection, commissioning, and maintenance into a traceable and auditable reference. Coverage includes standard elbows, fabricated and formed bends, induction bends, return bends, and special-radius configurations. Dimensional terminology and design criteria are reconciled with pressure and temperature considerations, flow and pressure-loss effects, stress and flexibility analysis, wall thinning, and ovality checks. Material specifications and procurement control ensure compliance with project codes and durability under operating conditions. Execution chapters emphasize fabrication workflow, welding procedure qualification, consumable control, heat treatment, nondestructive examination (NDE), hydrotesting, and construction sequencing. Field installation guidance addresses alignment, support integration, and constructability. Commissioning chapters provide structured records, acceptance forms, and reliability indicators. Maintenance sections highlight inspection frequencies, defect management, and preventive maintenance strategies, embedding risk-based planning into long-term asset performance. Worked examples are included for geometry, velocity, pressure drop, and simplified stress concepts. These examples are illustrative and must be reconciled with governing code equations and project-specific inputs. Transparent calculation notes show assumptions, governing relationships, input sources, results, acceptance checks, and reviewer comments. Technical tables summarize dimensional standards, material properties, inspection methods, and acceptance criteria. Appendices consolidate calculation references, material tables, inspection forms, abbreviations, and reference standards. Field checklists provide practical control points for fabrication, installation, and commissioning. By combining structured methodology, technical rigor, and lifecycle governance, the Bend of Piping Handbook delivers a professional, auditable, and field-usable reference. It strengthens technical assurance, minimizes risk, and establishes a credible baseline for safe, efficient, and compliant piping bend design, fabrication, installation, and maintenance across industrial projects.

Rp499.000
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Piping

SEPARATOR HANDBOOK

The Separator Handbook Version 1.0 presents a comprehensive engineering framework for the design, fabrication, installation, and operation of process separators. A separator is a pressure-containing vessel that creates controlled residence time and disengagement conditions so gas, hydrocarbon liquid, water, and entrained solids can be separated to the degree required by downstream equipment and product specifications. Reliable performance depends on the combined adequacy of inlet momentum control, gravity separation, coalescence, mist elimination, liquid retention, interface control, pressure regulation, and safeguarding systems. The handbook covers engineering methods and practical controls for two-phase and three-phase separators, horizontal and vertical vessels, scrubbers, knock-out drums, and filter/coalescing separators. Design chapters emphasize material selection, corrosion control, mechanical design, nozzle and piping load management, instrumentation, relief and flare interfaces, and safeguarding logic. Fabrication chapters highlight welding procedures, nondestructive examination (NDE), hydrotesting, coating, and preservation. Installation and commissioning sections provide structured guidance for transport, lifting, rigging, alignment, and mechanical completion. Operational chapters address troubleshooting, performance monitoring, and inspection-based maintenance. Reliability sections emphasize inspection frequencies, defect management, and preventive maintenance strategies. Worked examples illustrate sizing calculations, residence-time checks, nozzle load screening, and hydrotest preparation, showing assumptions, governing equations, input sources, results, acceptance checks, and reviewer comments. Each chapter includes technical tables, schematic diagrams, field-style visual references, workflow charts, checklists, and lifecycle deliverables. Appendices consolidate calculation notes, procurement and vendor documentation templates, inspection and test plan (ITP) formats, receiving and storage checks, commissioning records, maintenance logs, failure analysis forms, and industrial-sector application matrices. The methodology intentionally treats temporary conditions—such as supports, covers, braces, lifting arrangements, and storage environments—as engineered conditions, recognizing that improper handling during procurement, transport, or installation can directly affect final equipment integrity. By combining structured methodology, technical rigor, and lifecycle governance, the Separator Handbook delivers a professional, auditable, and field-usable reference. It strengthens technical assurance, minimizes risk, and establishes a credible baseline for safe, efficient, and compliant separator design, fabrication, installation, and operation across industrial projects.

Rp499.000
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Piping

COOLER OF PIPING

The Cooler of Piping Handbook Version 1.0 provides a consolidated technical reference for piping systems connected to industrial coolers and heat exchangers. It establishes a lifecycle methodology that integrates design, calculation, fabrication, installation, inspection, commissioning, and maintenance into a traceable and auditable framework. Coverage includes air-cooled heat exchangers, shell-and-tube coolers, plate and compact exchangers, and associated cooling-water or closed-loop utility networks. The focus is the piping discipline interface: line sizing, pressure drop, material selection, corrosion control, flexibility analysis, supports, layout, valves, drains, vents, instrumentation, constructability, QA/QC, testing, commissioning, and maintenance. Each chapter emphasizes how piping design interacts with cooler performance, ensuring reliability and compliance with project-specific codes. Engineering calculations include heat balance, log mean temperature difference (LMTD), overall heat-transfer coefficient (UA) relationships, flow velocity, Reynolds number, Darcy–Weisbach pressure drop, valve Cv checks, thermal expansion, nozzle load screening, test pressure logic, effectiveness, and reliability indicators. Worked examples demonstrate how assumptions, governing equations, and input data are reconciled with measurable acceptance criteria. These examples are deliberately transparent, showing units, calculation paths, and reviewer comments. Execution chapters extend into fabrication tolerances, welding procedures, consumable control, nondestructive examination (NDE), coating, insulation, preservation, and installation sequencing. QA/QC chapters embed inspection and test plan (ITP) matrices, hold and witness points, dimensional checks, nonconformance reporting, and acceptance records. Commissioning chapters provide structured dossiers, turnover documentation, and reliability indicators. Each chapter includes technical tables, a chapter-specific 3D engineering schematic, field-style visual references, inspection and maintenance guidance, a worked example, checklists, and lifecycle deliverables. Appendices provide reusable control sheets, calculation notes, procurement templates, inspection and commissioning forms, maintenance-frequency guidance, industrial application matrices, and record templates. By combining structured methodology, technical rigor, and lifecycle governance, the Cooler of Piping Handbook delivers a professional, auditable, and field-usable reference. It strengthens technical assurance, minimizes risk, and establishes a credible baseline for safe, efficient, and compliant piping design and execution in cooler and heat-exchanger systems.

Rp499.000
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Piping

NIPPLE OF PIPING

The Pipe Nipples Handbook Version 1.0 presents a comprehensive engineering framework for pipe nipples used in process, utility, and industrial piping systems. It establishes a lifecycle methodology that integrates design, manufacturing, procurement, installation, inspection, commissioning, maintenance, and failure analysis into a traceable and auditable reference. Coverage includes standard threaded, close, barrel/long, hex, and reducing/swaged arrangements. Thread engagement and sealing requirements are reconciled with specification hierarchy, material selection, and corrosion-control strategies. Pressure-thickness and remaining-wall screening are emphasized to ensure mechanical integrity under design and operating conditions. Manufacturing and fabrication chapters highlight machining tolerances, welding procedures, and special welded configurations. Surface protection sections address coating, insulation, and preservation practices. Execution chapters extend into procurement, inspection, packing, logistics, and field installation. Commissioning chapters provide structured records, acceptance forms, and reliability indicators. Maintenance chapters emphasize inspection frequencies, defect management, and preventive maintenance strategies. Failure analysis and repair guidance are included to support lifecycle integrity. Industrial application notes highlight adaptability across oil and gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine facilities. Calculation notes include mass determination, NPT taper geometry, pressure-thickness screening, corrosion rate and remaining life, cut-length allowances, welding heat input, coating consumption, procurement quantity, packing mass, thermal movement, pressure-decay indicators, and risk-priority screening. These examples intentionally separate training calculations from certified code calculations, emphasizing the need to verify the project-adopted edition of each standard. Worked examples are transparent, showing assumptions, governing equations, input sources, results, acceptance checks, and reviewer comments. Appendices consolidate formula references, selection forms, material specifications, corrosion controls, procurement and vendor data requirements, inspection and test plan (ITP) templates, receiving and storage checks, installation and field-release forms, pre-commissioning and commissioning records, maintenance and inspection templates, failure/RCA/MOC forms, industrial-sector application matrices, and references with photo/illustration credits. By combining structured methodology, technical rigor, and lifecycle governance, the Pipe Nipples Handbook delivers a professional, auditable, and field-usable reference. It strengthens technical assurance, minimizes risk, and establishes a credible baseline for safe, efficient, and compliant pipe nipple design, fabrication, installation, and maintenance across industrial projects.

Rp499.000
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Piping

BOSSES OF PIPING

The Bosses of Piping Handbook Version 1.0 provides a structured reference for boss and small-branch connections on process piping and equipment interfaces. It establishes a lifecycle methodology that integrates terminology, boss types, design-basis control, materials and corrosion, geometry and loads, reinforcement concepts, 3D model integration, welding, inspection, procurement, construction, commissioning, maintenance, and repair into a traceable and auditable framework. Design chapters emphasize classification, orientation, and reinforcement logic. Geometry and load sections reconcile local stresses, external forces, and fatigue considerations with code requirements. Material selection and corrosion-control strategies are embedded to ensure durability and compliance. 3D model integration chapters highlight how bosses are represented in digital design platforms, ensuring consistency between engineering intent and fabrication deliverables. Execution chapters extend into welding procedure qualification, consumable control, dimensional checks, and post-weld heat treatment (PWHT). Inspection and QA/QC chapters embed inspection and test plan (ITP) matrices, hold and witness points, nonconformance reporting, and acceptance criteria. Procurement chapters emphasize vendor documentation, traceability, and fabrication readiness. Commissioning chapters provide structured records, acceptance forms, and reliability indicators. Each chapter contains a unique 3D engineering schematic, a field reference image, technical theory, design-input tables, a worked screening calculation, material and fabrication controls, QA/QC requirements, installation and commissioning guidance, maintenance considerations, a technical lifecycle flow diagram, and a closeout checklist. These resources ensure that every boss connection is auditable, practical, and aligned with project-specific codes. Appendices consolidate calculation notes, material and procurement templates, ITPs and inspection records, field-release and commissioning forms, maintenance procedures, industrial-sector application matrices, references, and photo credits. Worked examples illustrate reinforcement checks, local stress calculations, and hydrotest preparation, showing assumptions, governing equations, input sources, results, acceptance checks, and reviewer comments. By combining structured methodology, technical rigor, and lifecycle governance, the Bosses of Piping Handbook delivers a professional, auditable, and field-usable reference. It strengthens technical assurance, minimizes risk, and establishes a credible baseline for safe, efficient, and compliant boss connection design, fabrication, installation, and maintenance across industrial projects.

Rp499.000
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Piping

NOZZLE HANDBOOK

The Nozzle Handbook Version 1.0 provides an integrated reference for nozzles used on pressure vessels, tanks, process equipment, and piping-connected systems across oil and gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine applications. It establishes a lifecycle methodology that integrates design, fabrication, installation, inspection, commissioning, maintenance, and repair into a traceable and auditable framework. Coverage includes classification and terminology, code boundaries, design basis, orientation, pressure thickness, reinforcement, external loads, and local stress. Interfaces such as flange, gasket, and bolting are addressed with emphasis on sealing reliability and mechanical integrity. Material selection and positive material identification (PMI) are embedded to ensure compliance with project specifications. Fabrication and machining chapters highlight tolerances, weld preparation, and post-weld heat treatment (PWHT). Inspection and nondestructive examination (NDE) procedures are aligned with international codes, while pressure and leak testing provide assurance of operational readiness. Execution chapters extend into installation, rigging, commissioning, and maintenance. Reliability sections emphasize inspection frequencies, defect management, and preventive maintenance strategies. Damage assessment and repair guidance is included to support lifecycle integrity. Procurement chapters embed vendor documentation, quality surveillance, and traceability requirements. Lifecycle documentation ensures that every nozzle record remains auditable, machine-readable, and suitable for owner handover. Appendices provide calculation notes, worked examples, material and procurement controls, inspection and test plan (ITP) templates, inspection forms, field-release records, commissioning forms, maintenance logs, industrial application matrices, checklists, and document templates. Worked examples illustrate reinforcement calculations, external load checks, and hydrotest preparation, showing assumptions, governing equations, input sources, results, acceptance checks, and reviewer comments. The handbook is structured as a ready-to-customize project master while retaining clear cautions that project-specific codes and approved calculations remain controlling. By combining structured methodology, technical rigor, and lifecycle governance, the Nozzle Handbook delivers a professional, auditable, and field-usable reference. It strengthens technical assurance, minimizes risk, and establishes a credible baseline for safe, efficient, and compliant nozzle design, fabrication, installation, and maintenance across industrial projects.

Rp499.000
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Piping

CALCULATION CONTROL SHEET

The Calculation Control Sheet Handbook Version 1.0 provides a structured methodology for planning, preparing, checking, approving, revising, issuing, and archiving engineering calculations across multidisciplinary projects. It establishes a lifecycle framework that integrates calculation philosophy, discipline-specific applications, verification procedures, and controlled documentation into a traceable and auditable system. The handbook is organized into twenty-eight chapters and eleven appendices. Core chapters explain control philosophy, calculation-note requirements, discipline workflows, and life-cycle gate reviews. Appendices consolidate forms, checklists, inspection records, procurement controls, worked examples, sector matrices, field-verification guidance, and a master multi-discipline calculation-control dashboard. Together, these resources enable engineers to apply consistent practices, demonstrate compliance, and maintain auditable records across industrial sectors. Technical content combines theory, basic equations, calculation-note structures, worked examples, calculation-control tables, inspection and test plan (ITP) concepts, field-release documentation, commissioning evidence, maintenance and reliability calculations, and life-cycle data management. Worked examples illustrate how assumptions, units, governing relationships, and verification steps are reconciled with measurable acceptance criteria. The key principle is simple: every calculation is treated as a controlled engineering record. A result is acceptable only when inputs, methods, units, assumptions, references, verification evidence, revision status, and approvals are demonstrably under control. Registers track calculation status, inspection findings, and revision history. Controlled release points ensure that calculations cannot progress to design or construction stages without verified compliance. Practical tools include calculation-note templates, procurement control tables, inspection forms, commissioning records, and maintenance logs. Reliability chapters emphasize inspection frequencies, defect management, and preventive maintenance strategies, embedding risk-based planning into long-term asset performance. By combining structured methodology, technical rigor, and lifecycle governance, the Calculation Control Sheet Handbook delivers a professional, auditable, and field-usable reference. It strengthens technical assurance, minimizes risk, and establishes a credible baseline for safe, efficient, and compliant engineering calculation management across oil and gas, petrochemical, chemical, power, water, mining, manufacturing, offshore, infrastructure, and marine projects.

Rp499.000
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Piping

PIPING LOADING CALCULATION

The Piping Loading Engineering Calculation Handbook Version 1.0 provides a structured reference for analyzing and managing piping loads in industrial facilities such as oil and gas plants, petrochemical complexes, refineries, power plants, chemical processing units, utilities, offshore installations, and general process industries. It establishes a lifecycle methodology that integrates design, calculation, verification, construction, commissioning, and maintenance into a traceable and auditable framework. A piping system does not only transfer fluid; it also transfers weight, pressure thrust, thermal expansion, vibration, hydrotest load, wind load, seismic load, and occasional loads to equipment, supports, pipe racks, structures, and foundations. Stress engineering ensures that these loads are properly distributed and absorbed without compromising safety or reliability. Design chapters emphasize load identification, stress-analysis methods, flexibility checks, nozzle load evaluation, and support design. Calculation-note guidance and worked examples illustrate pressure thrust, thermal expansion, vibration response, hydrotest preparation, and seismic verification. These examples are deliberately transparent, showing assumptions, governing equations, input sources, results, acceptance checks, and reviewer comments. Execution chapters extend into layout coordination, fabrication tolerances, welding, inspection, and construction sequencing. QA/QC chapters embed inspection and test plan (ITP) logic, hold and witness points, dimensional checks, nonconformance reporting, and field-release documentation. Commissioning chapters provide structured records, acceptance forms, and reliability indicators. Technical tables summarize dimensional standards, material properties, inspection methods, and acceptance criteria. Appendices provide reusable templates for calculation notes, inspection records, commissioning dossiers, maintenance logs, and sector application matrices. Maintenance chapters emphasize inspection frequencies, defect management, and preventive maintenance strategies, embedding reliability concepts into long-term asset performance. Improper piping loading calculation can cause overstressed piping, equipment nozzle overload, flange leakage, rotating equipment misalignment, support failure, unsafe hydrotest conditions, and construction rework. By embedding risk-based planning and lifecycle governance, the handbook provides engineers with a professional, auditable, and field-usable reference. The handbook is intended for piping stress engineers, piping layout engineers, civil engineers, structural engineers, mechanical engineers, construction engineers, and project engineers. By combining structured methodology, technical rigor, and lifecycle assurance, the Piping Stress Engineering Handbook strengthens technical assurance, minimizes risk, and establishes a credible baseline for safe, efficient, and compliant piping-system design and execution.

Rp499.000
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Piping

PROCEDURE EQUIPMENT

The Equipment Control Procedure Handbook Version 1.0 establishes a comprehensive methodology for controlling equipment while it is held between procurement, transportation, storage, installation, and commissioning milestones. It applies to static, rotating, packaged, electrical, and instrument equipment across diverse industrial sectors, ensuring that temporary conditions are treated as engineered conditions to protect long-term integrity. Core controls include equipment classification and criticality assessment, vendor documentation review, receiving inspection, transport and heavy-lift readiness, laydown and environmental protection, preservation and corrosion control, temporary supports and restraints, installation and alignment, inspection and test plan (ITP) implementation, nonconformance reporting (NCR), field release, commissioning, and maintenance handover. Each control point is linked to registers, inspection evidence, maintenance intervals, and controlled release gates to ensure traceability and auditable compliance. The methodology emphasizes risk-based status management. Registers track equipment condition, inspection findings, and preservation actions. Inspection evidence is documented through checklists, photographs, and acceptance records. Maintenance intervals are defined to sustain reliability during storage and pre-installation phases. Controlled release points ensure that equipment cannot progress to the next stage without verified compliance. Worked examples illustrate heavy-lift readiness, alignment tolerances, preservation requirements, and commissioning release logic. Technical tables summarize classification criteria, inspection methods, and acceptance thresholds. Appendices provide reusable templates for registers, inspection forms, commissioning records, maintenance logs, and sector application matrices. The handbook intentionally treats temporary conditions—such as supports, covers, braces, lifting arrangements, and storage environments—as engineered conditions. This approach recognizes that improper handling during procurement, transport, or storage can directly affect final equipment integrity. By combining structured methodology, technical rigor, and lifecycle governance, the Equipment Control Procedure Handbook delivers a professional, auditable, and field-usable reference. It strengthens technical assurance, minimizes risk, and establishes a credible baseline for safe, efficient, and compliant equipment management across procurement, construction, commissioning, and operations.

Rp499.000
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Piping

PREPARATION FOR PIPING FIELD

The Preparation for Piping Field Handbook Version 1.0 provides an integrated field-preparation framework for process, utility, and offsite piping across the full project lifecycle. It establishes a structured methodology that connects engineering readiness, document control, material specification and traceability, fabrication and spool management, logistics, survey, supports, workfront planning, welding, flange management, valves and equipment interfaces, heavy lifting, testing, preservation, mechanical completion, commissioning, QA/QC, HSE, maintenance, and digital turnover into a traceable and auditable system. Each chapter includes technical guidance, a representative 3D engineering schematic, a field-photo style visual, workflow diagrams, practical tables, checklists, and records. Engineering readiness chapters emphasize drawing control, material verification, and spool release logic. Fabrication and logistics sections highlight shop fit-up, dimensional checks, transport planning, and site receiving. Welding and flange management chapters embed procedure qualification, consumable control, torque verification, and leak-prevention practices. Execution chapters extend into heavy lifting, installation sequencing, hydrotest planning, preservation, and mechanical completion. QA/QC chapters embed inspection and test plan (ITP) matrices, hold and witness points, nonconformance reporting, and field-release documentation. Commissioning chapters provide structured records, acceptance forms, and turnover dossiers. HSE content emphasizes safe lifting, confined-space protocols, and hazard mitigation. Worked examples illustrate hydrotest preparation, flange torque checks, spool traceability, and valve inspection readiness. Technical tables summarize dimensional standards, material properties, inspection methods, and acceptance criteria. Appendices consolidate calculation notes, procurement controls, ITP templates, inspection and commissioning forms, maintenance frequencies, industrial-sector matrices, field checklists, glossary, and reference guidance. Maintenance chapters emphasize inspection frequencies, defect management, and preventive maintenance strategies. Reliability records and failure-mode troubleshooting link observed deterioration to inspection intervals and repair decisions, embedding risk-based planning into long-term asset management. By combining structured methodology, technical rigor, and lifecycle governance, the Preparation for Piping Field Handbook delivers a professional, auditable, and field-usable reference. It strengthens technical assurance, minimizes risk, and establishes a credible baseline for safe, efficient, and compliant piping field preparation across multidisciplinary teams.

Rp499.000
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Piping

PREPARATION PROCEDURE FOR LINE INDEX

The Piping Line Index Procedure Handbook Version 1.0 presents a comprehensive methodology for preparing and maintaining a piping line index throughout the lifecycle of industrial projects. It establishes a structured framework that integrates design, procurement, fabrication, construction, inspection, commissioning, and maintenance into a traceable and auditable dataset. The handbook defines required source documents, line numbering philosophy, data fields, design-condition capture, material and insulation information, equipment and tie-in interfaces, review workflows, construction usage, testing and commissioning links, digital quality controls, maintenance information, and industrial-sector adaptations. Each element is reconciled with project-specific criteria and governing codes to ensure compliance, reliability, and consistency. The procedure emphasizes data integrity: every line identifier must be unique, every critical field must have a defined source, every change must be controlled, and every issue must be reconciled with the latest approved engineering documents. This approach ensures that the line index remains auditable, machine-readable, and practical for field execution and final owner handover. Technical content includes calculation notes for common line-index inputs, example data records, inspection and commissioning forms, material and procurement control tables, maintenance-frequency guidance, and industrial application matrices. Worked examples demonstrate mechanics-based calculations such as pressure design, wall-thickness checks, flexibility flags, and hydrotest preparation. These examples are deliberately transparent, enabling engineers to adapt illustrative inputs to project-approved values. Tables and checklists provide practical bridges from engineering design to field verification. QA/QC chapters embed inspection and test plan (ITP) logic, nonconformance reporting, and acceptance criteria. Commissioning chapters provide structured records, turnover dossiers, and reliability indicators. Maintenance chapters emphasize inspection frequencies, defect management, and preventive maintenance strategies, embedding risk-based planning into long-term asset performance. The handbook is intended for piping engineers, designers, construction engineers, supervisors, planners, QA/QC inspectors, material coordinators, welding personnel, commissioning teams, operations representatives, and asset-integrity personnel. By combining structured methodology, technical rigor, and lifecycle governance, the Piping Line Index Procedure Handbook delivers a professional, auditable, and field-usable reference that strengthens technical assurance, minimizes risk, and establishes a credible baseline for safe, efficient, and compliant piping engineering and construction.

Rp499.000
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Piping

PIPELINE DESIGN

The Pipeline Systems Handbook Version 1.0 provides an integrated reference for onshore, offshore, buried, above-ground, subsea, process-plant, utility, slurry, water, and marine pipeline systems. It establishes a lifecycle methodology that extends from concept selection and design basis through route engineering, hydraulics, pressure design, materials, fracture and fatigue, stress, stability, crossings, offshore design, stations, corrosion control, welding, procurement, construction, hydrotest, pre-commissioning, automation, operations, integrity management, emergency response, and decommissioning. The handbook is structured into twenty technical chapters supported by calculation notes, worked-example review steps, actual field-reference photographs, three-dimensional engineering schematics, technical flow diagrams, design-input tables, lifecycle controls, inspection and test points, checklists, material and procurement controls, maintenance frequencies, and record templates. Appendices consolidate reusable calculation worksheets, line-pipe specification controls, ITP formats, field-release forms, hydrotest and commissioning records, maintenance planning, industrial-sector applications, glossary, and reference framework. Calculation content is deliberately method-oriented. It identifies variables, assumptions, governing relationships, verification steps, and required output records. It does not prescribe universal design values because allowable stress, load combinations, test pressures, defect criteria, corrosion current densities, fatigue curves, and inspection intervals depend on the selected code, jurisdiction, service, material, environment, and approved project basis. Worked examples illustrate hydraulic sizing, pressure design, fatigue verification, and corrosion control, showing how engineering assumptions are reconciled with measurable acceptance criteria. Execution chapters emphasize procurement traceability, fabrication tolerances, welding procedure qualification, consumable control, nondestructive examination (NDE), coating, insulation, preservation, installation, and hydrotest planning. QA/QC chapters embed inspection and test plan (ITP) matrices, hold and witness points, nonconformance reporting, and acceptance records. Commissioning chapters provide structured dossiers, turnover documentation, and reliability indicators. Maintenance sections highlight inspection frequencies, defect management, and preventive maintenance strategies. Reliability records and failure-mode troubleshooting link observed deterioration to inspection intervals and repair decisions, embedding risk-based planning into long-term asset management. By combining structured methodology, technical rigor, and lifecycle governance, the Pipeline Systems Handbook delivers a professional, auditable, and field-usable reference. It strengthens technical assurance, minimizes risk, and establishes a credible baseline for safe, efficient, and compliant pipeline engineering and construction.

Rp499.000
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Piping

PACKAGE UNIT FOR PIPING

The Package Unit for Piping Handbook Version 1.0 provides an engineering and construction practice guide for piping systems incorporated in packaged process units and skid-mounted modules. It establishes a lifecycle methodology that integrates standards, design basis, layout, materials, components, stress analysis, supports, fabrication, inspection, transportation, installation, testing, commissioning, operation, maintenance, reliability, and integrity management into a traceable and auditable framework. Design chapters emphasize piping philosophy, material classes, hydraulic sizing, flexibility analysis, and equipment interfaces. Layout considerations address compact skid-mounted arrangements, accessibility, and constructability. Stress-analysis sections reconcile thermal expansion, pressure thrust, and support reactions with serviceability and durability requirements. Worked examples illustrate pressure-drop estimation, thermal expansion checks, hydrotest planning, material take-off preparation, and maintenance interval development. These examples are deliberately transparent, showing assumptions, units, input sources, formulas, results, acceptance checks, and reviewer comments. Execution chapters extend into fabrication, welding, nondestructive examination (NDE), coating, insulation, preservation, and installation. QA/QC chapters embed inspection and test plan (ITP) logic, hold and witness points, dimensional checks, nonconformance control, field-release documentation, and turnover dossiers. Commissioning chapters provide structured records, acceptance forms, and reliability indicators. Technical tables summarize dimensional standards, material properties, inspection methods, and acceptance criteria. Appendices provide reusable templates for calculation notes, procurement forms, inspection checklists, commissioning records, maintenance logs, and sector application matrices. Field checklists ensure practical control points for fabrication, installation, and commissioning. Maintenance chapters emphasize inspection frequencies, defect management, and preventive maintenance strategies. Reliability records and failure-mode troubleshooting link observed deterioration to inspection intervals and repair decisions, embedding risk-based planning into long-term asset management. By combining structured methodology, technical rigor, and lifecycle governance, the Package Unit for Piping Handbook delivers a professional, auditable, and field-usable reference. It strengthens technical assurance, minimizes risk, and establishes a credible baseline for safe, efficient, and compliant piping engineering and construction in packaged process units and skid-mounted modules.

Rp499.000
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Piping

PIPING TIE IN LIST

The Piping Tie-In List Handbook defines a comprehensive methodology for developing and using a piping tie-in list throughout the project lifecycle. It establishes a structured framework that integrates design, procurement, fabrication, construction, inspection, commissioning, and maintenance into a traceable and auditable system. The handbook explains minimum data fields, numbering philosophy, source-document integration, tie-in classification, and survey requirements. Design chapters emphasize calculation logic for load distribution, isolation planning, fit-up tolerances, welding parameters, and nondestructive examination (NDE). Execution chapters extend into fabrication, construction planning, testing, reinstatement, commissioning, and final documentation. Each tie-in is treated as a controlled technical transaction, ensuring visibility of originator, receiver, required data, format, review status, verification method, and closure evidence. Technical resources include tables, checklists, worked examples, inspection records, maintenance frequencies, and form templates. Worked examples illustrate how preparation choices affect deposition volume, welding time, and inspection readiness. Tables summarize dimensional standards, material properties, inspection methods, and acceptance criteria. Checklists provide practical control points for survey, fit-up, welding, and testing. Quality assurance chapters embed inspection and test plan (ITP) matrices, hold and witness points, nonconformance reporting, and field-release documentation. Commissioning chapters provide structured records, turnover dossiers, and maintenance logs. Maintenance sections emphasize inspection frequencies, defect management, and reliability performance, embedding risk-based planning into long-term asset integrity. Application notes highlight adaptability across oil and gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine facilities. Sector-specific requirements vary by risk classification, materials, redundancy, environmental exposure, occupancy, fire strategy, and regulatory compliance. The handbook is intended for piping engineers, designers, construction engineers, supervisors, planners, QA/QC inspectors, material coordinators, welding personnel, commissioning teams, operations representatives, and asset-integrity personnel. By combining structured methodology, technical rigor, and lifecycle governance, the Piping Tie-In List Handbook delivers a professional, auditable, and field-usable reference. It strengthens technical assurance, minimizes risk, and establishes a credible baseline for safe, efficient, and compliant piping tie-in management.

Rp499.000
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Piping

PIPING LINE INDEX

The Piping Line Index Handbook Version 1.0 presents a comprehensive method for creating, reviewing, issuing, and maintaining a piping line index across industrial projects. It establishes a lifecycle framework that integrates engineering design, procurement, fabrication, construction, inspection, commissioning, and maintenance into a traceable and auditable dataset. The handbook describes line-number structures, required data fields, design pressure and temperature, service classification, piping material classes, wall thickness, components, insulation and tracing, stress-analysis flags, fabrication and inspection requirements, testing protocols, construction sequencing, commissioning procedures, and maintenance handover. Each element is reconciled with project-specific criteria and governing codes to ensure compliance and reliability. Technical content includes calculation notes, sample line-index records, field dictionaries, material and procurement controls, inspection and test plan (ITP) examples, inspection forms, field-release documentation, commissioning records, and maintenance procedures. Worked examples demonstrate mechanics-based calculations such as pressure design, wall-thickness checks, flexibility flags, and hydrotest preparation. These examples are deliberately transparent, enabling engineers to adapt illustrative inputs to project-approved values. Tables and checklists provide practical bridges from engineering design to field verification. Material lists and procurement controls emphasize traceability, requiring certificates, submittals, and inspection evidence for every line class and component. QA/QC chapters embed ITP logic, nonconformance reporting, and acceptance criteria. Maintenance chapters link inspection frequencies with defect management and repair decisions, embedding reliability concepts into long-term asset performance. Industrial application matrices highlight adaptability across oil and gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine projects. Sector-specific notes address environmental exposure, redundancy, occupancy, fire strategy, and regulatory compliance. The intended result is a line-index dataset that is consistent, auditable, machine-readable, practical for field execution, and suitable for final owner handover. By combining structured methodology, technical rigor, and lifecycle governance, the Piping Line Index Handbook delivers a professional, auditable, and field-usable reference that strengthens technical assurance, minimizes risk, and establishes a credible baseline for safe, efficient, and compliant piping engineering and construction

Rp499.000
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Piping

EXECUTION FLOW OF PIPING

The Execution Flow of Piping Handbook Version 1.0 presents a complete lifecycle framework for piping work in EPC and industrial projects. Structured into 24 technical chapters and 11 appendices, it extends from project initiation and engineering data control through detailed design, procurement, fabrication, construction, testing, commissioning, operation, and reliability. The methodology is adaptable to oil and gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine facilities, subject to project-specific requirements and governing codes. Design chapters emphasize piping philosophy, material classes, hydraulic sizing, flexibility analysis, equipment interfaces, supports, and buried or offshore applications. Calculation-note guidance and worked examples illustrate pressure design, flexibility checks, nozzle load utilization, and hydrotest preparation. These examples are deliberately transparent, showing assumptions, units, input sources, formulas, results, acceptance checks, and reviewer comments. Execution chapters extend into fabrication, welding, nondestructive examination (NDE), coating, insulation, preservation, installation, and pressure testing. QA/QC chapters embed inspection and test plan (ITP) logic, hold and witness points, dimensional checks, nonconformance control, field-release documentation, and turnover dossiers. Commissioning chapters provide structured records, acceptance forms, and reliability indicators. Technical tables, material lists, procurement controls, inspection records, maintenance frequencies, and industrial application matrices are embedded throughout. Each technical chapter contains a unique engineering flow graphic, two distinct field-photo views, and supporting diagrams for calculation, quality gates, and reliability. Field checklists provide practical control points for fabrication, installation, and commissioning. Maintenance chapters emphasize inspection frequencies, defect management, and preventive maintenance strategies. Reliability records and failure-mode troubleshooting link observed deterioration to inspection intervals and repair decisions, embedding risk-based planning into long-term asset management. The handbook layout is designed for A4 portrait printing, with controlled margins, readable captions, and tables that remain within page boundaries. By combining structured methodology, technical rigor, and lifecycle governance, the Execution Flow of Piping Handbook delivers a professional, auditable, and field-usable reference. It strengthens technical assurance, minimizes risk, and establishes a credible baseline for safe, efficient, and compliant piping engineering and construction.

Rp499.000
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Piping

EXECUTION PROCEDURE FOR PIPING DESIGN ENGINEERING

The Execution Procedure for Piping Design Engineering Handbook Version 1.0 provides a complete execution framework for piping design engineering across oil and gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine projects. It establishes a lifecycle methodology that integrates project execution, design inputs, process criteria, materials, equipment interfaces, plant layout, 3D coordination, stress analysis, calculations, drawings, quality control, construction, commissioning, and reliability into a traceable and auditable system. Design chapters emphasize process criteria, piping material specifications, hydraulic sizing, flexibility analysis, and equipment interface management. Plant layout and 3D coordination are reconciled with stress analysis and drawing production to ensure constructability and compliance. Calculation-note guidance and worked examples illustrate pressure design, flexibility checks, nozzle load utilization, and support reactions. These examples are deliberately transparent, showing assumptions, units, input sources, formulas, results, acceptance checks, and reviewer comments. Execution chapters extend into procurement controls, fabrication, welding, nondestructive examination (NDE), coating, insulation, preservation, installation, and pressure testing. QA/QC chapters embed inspection and test plan (ITP) logic, hold and witness points, dimensional checks, nonconformance control, field-release documentation, and turnover dossiers. Commissioning chapters provide structured records, acceptance forms, and reliability indicators. Technical tables summarize dimensional standards, material properties, inspection methods, and acceptance criteria. Appendices provide reusable templates for calculation notes, procurement forms, inspection checklists, commissioning records, maintenance logs, and sector application matrices. Maintenance chapters emphasize inspection frequencies, defect management, and preventive maintenance strategies, embedding reliability concepts into long-term asset performance. Sector-specific application guidance highlights adaptability across diverse environments and regulatory frameworks. While the same procedural principles apply, project-specific verification and governing codes must always be confirmed before design or execution. By combining structured methodology, technical rigor, and lifecycle governance, the Execution Procedure for Piping Design Engineering Handbook delivers a professional, auditable, and field-usable reference. It strengthens technical assurance, minimizes risk, and establishes a credible baseline for safe, efficient, and compliant piping design engineering and construction.

Rp499.000
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Piping

PIPING SPLIT OF WORK WITH OTHER DISCIPLINES

Piping Split of Work with other Disciplines provides a structured framework for splitting piping-related engineering, procurement, fabrication, construction, inspection, commissioning, and maintenance work among project disciplines. It establishes a lifecycle methodology that integrates responsibility matrices, deliverable interfaces, input/output registers, technical workflows, field coordination guidance, calculation notes, inspection and release forms, commissioning records, reliability practices, and industrial application matrices into a traceable and auditable system. The approach treats each interface as a controlled technical transaction. Every transaction has an originator, receiver, required data, format, review status, due date, verification method, change-control path, and closure evidence. This method supports schedule predictability and design integrity because unresolved interface assumptions are made visible and actionable. Design and execution chapters emphasize pressure thrust, thermal movement, piping and support loads, nozzle load utilization, hydrotest preparation, material traceability, interface completion metrics, clash closure indicators, and construction release readiness. Worked examples illustrate mechanics-based calculations and interface closure logic, showing how engineering assumptions are reconciled with measurable acceptance criteria. Quality and construction sections embed inspection and test plan (ITP) matrices, hold and witness points, dimensional checks, welding and bolting records, nonconformance control, field-release documentation, and turnover dossiers. Commissioning chapters provide structured records, acceptance forms, and reliability practices. Maintenance chapters emphasize inspection frequencies, defect management, and risk-based planning. Industrial-sector application matrices highlight adaptability across oil and gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine projects. Sector-specific notes address regulatory alignment, environmental exposure, redundancy, and operational risk. By combining structured methodology, technical rigor, and lifecycle governance, the TEP-A360-02 Handbook delivers a professional, auditable, and field-usable reference. It strengthens technical assurance, minimizes risk, and establishes a credible baseline for safe, efficient, and compliant piping interface management across all phases of engineering and construction.

Rp499.000
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Piping

PLAN FOR PRACTICAL USE OF PIPING

The Plan for Practical Use of Piping Handbook Version 1.0 provides a lifecycle reference for piping engineering and execution across oil and gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine projects. It establishes a coherent bridge from engineering concept to field use and long-term asset reliability, ensuring that design intent is consistently translated into measurable acceptance criteria and auditable execution records. Design chapters integrate piping philosophy, material classes, pressure design, hydraulic sizing, layout, flexibility analysis, equipment interfaces, supports, and buried or offshore applications. Structural and hydraulic checks reconcile load paths, stress distribution, and serviceability requirements. Fabrication and welding sections emphasize procedure qualification, consumable control, and nondestructive examination (NDE). Coating, insulation, preservation, and installation chapters embed corrosion protection and lifecycle durability. Execution chapters extend into pressure testing, pre-commissioning, commissioning, QA/QC, and integrity management. Inspection and test plan (ITP) logic is embedded throughout, with hold and witness points linked to field-release documentation and turnover dossiers. Worked examples are presented as calculation-note templates, showing hydraulic sizing, pressure design, flexibility checks, and support reactions. These examples are deliberately transparent, enabling engineers to replace illustrative inputs with project-approved values. Each chapter contains a dedicated 3D engineering schematic, a distinct field-reference visual, a lifecycle flow diagram, practical calculations or checking logic, material and procurement controls, and inspection or maintenance guidance. Technical tables summarize dimensional standards, material properties, inspection methods, and acceptance criteria. Checklists provide practical control points for fabrication, installation, and commissioning. Maintenance chapters emphasize inspection frequencies, defect management, and reliability concepts. Preventive maintenance schedules are linked to observed deterioration, embedding risk-based planning into long-term asset management. Industrial-sector application matrices highlight adaptability to diverse environments and regulatory frameworks. By combining structured methodology, technical rigor, and lifecycle governance, the Plan for Practical Use of Piping Handbook delivers a professional, auditable, and field-usable reference. It strengthens technical assurance, minimizes risk, and establishes a credible baseline for safe, efficient, and compliant piping engineering and construction.

Rp499.000
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Civil

STANDARD DESIGN BUILDING

The Building Standard Projects Handbook Version 1.0 consolidates the principal requirements, design criteria, technical notes, material controls, installation practices, inspection activities, commissioning procedures, and maintenance considerations for conventional and modern integrated smart-building technologies. It establishes a lifecycle methodology that integrates design, procurement, construction, inspection, commissioning, and maintenance into a traceable and auditable framework. Design content introduces philosophy, structural systems, architectural elements, utilities, fire and life safety, HVAC, electrical distribution, communication, security, energy management, and Building Automation/Management Systems. Each discipline is reconciled with project criteria to ensure compliance, safety, and performance. Structural chapters emphasize load paths, reinforcement detailing, and dimensional tolerances. Architectural and services sections highlight accessibility, fire strategy, HVAC coordination, electrical distribution, and smart-building integration. Execution chapters extend into procurement, fabrication, delivery, storage, installation, and construction logistics. Control points include material verification, ITP implementation, dimensional checks, welding and bolting records, nonconformance control, field-release documentation, and turnover dossiers. Commissioning chapters provide structured records, acceptance forms, and operation and maintenance manuals. Worked examples illustrate calculation-note structures for load distribution, service integration, fire strategy reconciliation, and energy performance checks. Technical tables summarize dimensional standards, material properties, inspection methods, and acceptance criteria. Appendices provide reusable templates for material lists, inspection records, commissioning checklists, maintenance logs, and lifecycle planning matrices. Maintenance chapters emphasize preventive maintenance, inspection frequencies, defect management, and reliability performance. Smart-building systems are addressed with energy monitoring, automation controls, and sustainability strategies. Reliability records and failure-mode troubleshooting link observed defects to inspection intervals and repair decisions, embedding risk-based planning into long-term asset management. Applications span oil and gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine facilities. While the same procedural principles apply, sector-specific requirements vary by risk classification, materials, redundancy, environmental exposure, occupancy, fire strategy, and regulatory compliance. By combining structured methodology, technical rigor, and lifecycle governance, the Building Standard Projects Handbook delivers a professional, auditable, and field-usable reference. It strengthens technical assurance, minimizes risk, and establishes a credible baseline for safe, efficient, and compliant building-system engineering and construction.

Rp499.000
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Civil

BUILDING STANDARD PROCEDURE

The Building Standard Procedure Handbook Version 1.0 defines a comprehensive procedural framework for civil, structural, architectural, mechanical, electrical, fire, and integrated building systems. It establishes a lifecycle methodology that integrates planning, technical design control, procurement, fabrication, delivery, storage, installation, construction, inspection, testing, commissioning, handover, and maintenance into a traceable and auditable process. Design chapters emphasize constructability, interface management, and dimensional control. Technical content covers structural framing, architectural detailing, mechanical and electrical coordination, fire protection systems, and integrated building services. Material traceability is embedded through certificates, submittals, storage protocols, and inspection records. Drawing and model coordination ensure consistency across disciplines, while calculation-note discipline reconciles design assumptions with measurable acceptance criteria. Execution chapters extend into procurement, fabrication, logistics, and construction. Control points include inspection and test planning (ITP), hold and witness points, dimensional checks, welding and bolting records, nonconformance control, field-release documentation, and punch-list closure. Commissioning chapters provide structured records, turnover dossiers, and operation and maintenance information. Worked examples illustrate load distribution, connection checks, service integration, and fire strategy reconciliation. Technical tables summarize dimensional standards, material properties, inspection methods, and acceptance criteria. Appendices provide reusable templates for procurement forms, inspection checklists, commissioning records, maintenance logs, and sector application matrices. Maintenance chapters emphasize preventive maintenance, inspection frequencies, defect management, and reliability performance. Risk-based planning is embedded to sustain long-term asset integrity. Reliability records and failure-mode troubleshooting link observed defects to inspection intervals and repair decisions. Applications are discussed for oil and gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, and infrastructure/marine facilities. While the same procedural principles apply, sector-specific requirements vary by risk classification, materials, redundancy, environmental exposure, occupancy, fire strategy, and regulatory compliance. By combining structured methodology, technical rigor, and lifecycle governance, the Building Standard Procedure Handbook delivers a professional, auditable, and field-usable reference. It strengthens technical assurance, minimizes risk, and establishes a credible baseline for safe, efficient, and compliant building-system engineering and construction.

Rp499.000
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Civil

BUILDING SPECIFICATION

The Building Specification Handbook provides a comprehensive framework for building specifications across industrial, commercial, and infrastructure projects. It establishes a lifecycle methodology that integrates general requirements, regulatory compliance, design criteria, civil and structural works, architecture, building services, life safety, external works, quality management, construction logistics, commissioning, and maintenance into a traceable and auditable system. The document is structured into repeatable chapter modules, making requirements easy to review, audit, and apply. Each module translates design information into measurable acceptance criteria, ensuring clarity between engineering intent and field execution. Civil and structural chapters emphasize material specification, reinforcement detailing, and construction tolerances. Architectural and building services sections highlight accessibility, fire safety, HVAC, electrical, and plumbing coordination. External works address drainage, paving, landscaping, and utility integration. Quality and execution chapters embed material specification and procurement control, calculation-note discipline, ITP implementation, field inspection, hold-point release, commissioning forms, maintenance frequency, and reliability concepts. Worked examples illustrate how design assumptions are reconciled with inspection evidence, while appendices provide engineering worksheets, master material lists, procurement documents, quality forms, commissioning records, and glossary terms. The handbook emphasizes traceability and compliance. Material sections connect technical properties with procurement submittals, certificates, and inspection records. Construction chapters highlight logistics, site interfaces, and safety planning. QA/QC chapters embed nonconformance control, inspection templates, and turnover dossiers. Maintenance chapters link inspection frequencies with defect management and repair decisions, embedding reliability into long-term asset performance. Industrial-sector application matrices demonstrate adaptability across oil and gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine projects. Sector-specific notes highlight regulatory alignment and customization potential. By combining structured methodology, technical rigor, and lifecycle governance, the TEP-A326-02 Handbook delivers a professional, auditable, and field-usable reference. It reduces ambiguity between engineering and field execution, strengthens technical assurance, minimizes risk, and establishes a credible baseline for safe, efficient, and compliant building specification management.

Rp499.000
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Civil

STANDARD CHECK SHEET BUILDING

The Standard Check Sheet Steel Structure Handbook Version 1.0 is a comprehensive QA/QC and field engineering reference for structural-steel work from design through maintenance. It provides a practical framework for building and using check sheets that link project requirements to inspection actions, hold/witness/review points, measurable acceptance criteria, objective evidence, nonconformity control, and formal release. The technical content covers structural material certification and traceability, shop drawings and piece marking, receiving and preservation, cutting, drilling, and forming. Welding procedure, personnel, and consumable controls are addressed alongside shop fit-up, visual inspection, and nondestructive examination. High-strength bolting, base plates, and anchor rods are detailed to ensure proper load transfer and durability. Surface preparation, blast cleaning, coating, and hot-dip galvanizing are included to maintain corrosion protection and long-term reliability. Construction chapters emphasize trial assembly, transport, site receiving, crane and rigging planning, and erection sequencing. Column, beam, brace, and truss erection are linked to field connections, secondary steel installation, and as-built survey requirements. Mechanical completion and turnover procedures are embedded to ensure traceable acceptance. Maintenance and reliability sections provide inspection frequencies, corrective actions, and lifecycle extension strategies. Worked examples illustrate how check sheets reconcile design assumptions with inspection evidence. Templates include inspection forms, ITP matrices, NCR records, punch-list closure sheets, and commissioning release documents. These resources enable project teams to apply consistent practices, demonstrate compliance, and maintain auditable records across diverse industrial sectors. The handbook emphasizes lifecycle assurance, treating steel structures as integrated engineering and operational assets. By combining structured methodology, technical rigor, and traceable documentation, it delivers a professional, auditable, and field-usable reference. The intended outcome is a safe, inspectable, maintainable, and reliable structural-steel system that performs consistently through its design life, reducing rework, nonconformities, and operational risk. The Standard Check Sheet Steel Structure Handbook establishes a credible baseline for safe, efficient, and compliant steel structure engineering and construction.

Rp499.000
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Civil

SINGLE BEVEL

The Single Bevel Welded Joint Handbook Version 1.0 presents a detailed technical framework for the engineering and construction of single bevel welded joints applied in piping, pressure equipment, structural fabrication, machinery, offshore facilities, and infrastructure projects. It establishes a lifecycle methodology that integrates design, material selection, fabrication, inspection, commissioning, and maintenance into a traceable and auditable process. Coverage includes terminology, joint geometry, weld volume, material weldability, edge preparation, fit-up, welding procedure qualification, process variables, heat input, preheat, and post-weld heat treatment (PWHT). Fabrication controls, field execution, equipment requirements, inspection protocols, nondestructive testing (NDT), defect prevention, repair procedures, quality records, commissioning, and maintenance are systematically addressed. The technical method is built around measurable controls. Typical joint dimensions are presented together with calculation formulas for weld area, deposited mass, heat input, welding time, and carbon equivalent. Worked examples demonstrate how preparation choices affect deposition volume, production planning, and resource allocation. These examples are deliberately transparent, showing assumptions, units, input sources, formulas, results, acceptance checks, and reviewer comments. Tables and checklists provide a practical bridge from engineering design to field verification. Technical tables summarize weld types, consumable classifications, dimensional tolerances, inspection methods, and acceptance criteria. Checklists support edge preparation, fit-up verification, welding parameter control, and inspection documentation. Material sections connect technical properties with procurement controls such as submittals, certificates, traceability, storage, handling, shelf life, and inspection status. Construction chapters illustrate typical shop and field interfaces while retaining requirements for site-specific lifting, fit-up, and traffic plans. QA/QC chapters embed inspection and test plan (ITP) matrices, nonconformance reporting, and acceptance records. Appendices provide calculation sheets, material and procurement controls, ITP matrices, field-release forms, commissioning checklists, maintenance records, industrial-sector application matrices, welding-symbol references, and example qualification documents. By combining structured methodology, technical rigor, and lifecycle governance, the Single Bevel Welded Joint Handbook delivers a professional, auditable, and field-usable reference. It strengthens technical assurance, minimizes risk, and establishes a credible baseline for safe, efficient, and compliant welded joint engineering and construction.

Rp499.000
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Civil

FLOORING AND JOIST

The TEP-A325-05 Flooring and Joist Systems Handbook Version 1.0 provides an end-to-end technical reference for flooring and joist systems across industrial, commercial, and infrastructure applications. It establishes a lifecycle methodology that integrates system architecture, design criteria, material selection, procurement, fabrication, logistics, construction, inspection, commissioning, and maintenance into a traceable and auditable framework. Design chapters introduce tributary loading, bending, shear, bearing, deflection, vibration, fastener checks, and connection verification. Timber and steel joists are addressed alongside floor build-up, hangers, and structural interfaces. Calculation content is presented as transparent templates, enabling engineers to adapt worked examples to project-specific geometry and material data. Structural checks reconcile load paths with serviceability and durability requirements, ensuring compliance with governing codes and standards. Execution chapters extend into fabrication, procurement, logistics, and construction. Practical control points include material verification, ITP hold and witness points, dimensional checks, welding and bolting records, nonconformance control, field-release documentation, and turnover dossiers. These elements embed quality assurance into every stage of the lifecycle. Worked examples illustrate tributary load distribution, bending moment checks, shear capacity, deflection limits, vibration response, and fastener utilization. Technical tables summarize dimensional standards, material properties, inspection methods, and acceptance criteria. Appendices provide reusable templates for calculation notes, procurement forms, inspection checklists, commissioning records, maintenance logs, and industrial application matrices. Maintenance chapters emphasize inspection frequencies, repair procedures, and reliability concepts. Defects are linked to inspection intervals and repair decisions, embedding risk-based planning into long-term asset management. Sector-specific notes highlight adaptability to oil and gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine projects. By combining structured methodology, technical rigor, and lifecycle governance, the TEP-A325-05 Handbook delivers a professional, auditable, and field-usable reference. It strengthens technical assurance, minimizes risk, and establishes a credible baseline for safe, efficient, and compliant flooring and joist engineering and construction.

Rp499.000
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Civil

WELDED CONNECTION

The Welded Connection Handbook Version 1.0 provides an integrated technical reference for welded connections used in structural steel, process piping, pipelines, equipment supports, offshore structures, marine facilities, and industrial plant systems. It establishes a lifecycle methodology that links design, material selection, fabrication, inspection, commissioning, and maintenance into a traceable and auditable framework. Coverage includes welding fundamentals and metallurgy, major arc-welding processes, joint and groove design, base metal and consumable control, WPS/PQR development, and welder qualification. Structural chapters address weld-group calculations, shop and field fabrication, preheat, heat input, and post-weld heat treatment (PWHT). Quality assurance sections emphasize visual inspection, nondestructive testing (NDT), defect prevention, repair procedures, fatigue considerations, corrosion protection, maintenance, and reliability. Commissioning chapters highlight dossier handover and compliance with governing codes. Worked examples demonstrate mechanics-based calculations for weld-group strength, eccentric load distribution, heat input estimation, and fatigue verification. These examples are deliberately transparent, showing assumptions, units, input sources, formulas, results, acceptance checks, and reviewer comments. Technical tables summarize weld types, consumable classifications, dimensional tolerances, inspection methods, and acceptance criteria. Material sections connect technical properties with procurement controls such as submittals, certificates, traceability, storage, handling, shelf life, and inspection status. Construction chapters illustrate typical shop and field interfaces while retaining requirements for site-specific lifting, fit-up, and traffic plans. QA/QC chapters embed inspection and test plan (ITP) matrices, nonconformance reporting, and acceptance records. Appendices provide calculation sheets, material and procurement controls, ITP matrices, field-release forms, commissioning checklists, maintenance records, industrial-sector application matrices, welding-symbol references, and example qualification documents. These resources enable project teams to adapt the framework to project-specific requirements while maintaining compliance with international standards. By combining structured methodology, technical rigor, and lifecycle governance, the Welded Connection Handbook delivers a professional, auditable, and field-usable reference. It strengthens technical assurance, minimizes risk, and establishes a credible baseline for safe, efficient, and compliant welded connection engineering and construction.

Rp499.000
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Civil

BOLT CONNECTION

The Bolt Connection Handbook Version 1.0 provides an integrated reference for the engineering, procurement, fabrication, construction, inspection, commissioning, and maintenance of structural bolted connections. It establishes a lifecycle methodology that links design intent, material selection, fabrication practice, installation procedures, and long-term reliability into a traceable and auditable framework. The handbook covers high-strength structural bolts, nuts, washers, and direct-tension indicators. It addresses hole types and tolerances, bearing and slip-critical behavior, tension and combined loading, and interfaces for beams, splices, moments, bracing, and base plates. Execution chapters extend into erection and pretensioning methods, QA/QC and inspection and test plan (ITP) requirements, corrosion protection, fatigue and dynamic service, offshore and marine environments, procurement traceability, and final handover records. Worked examples demonstrate mechanics-based calculations such as direct bolt-group shear, elastic distribution under eccentricity, approximate pretension/torque relationships, and utilization reporting. These examples are explicitly separated from code acceptance equations, ensuring clarity between illustrative mechanics and governing standards. Technical tables summarize component functions, material options, dimensional data, inspection methods, and acceptance evidence. Checklists, material lists, inspection forms, maintenance frequencies, flow diagrams, and sector matrices support implementation across oil and gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine projects. Procurement chapters emphasize traceability, requiring certificates, submittals, and inspection records for each batch of bolts and fasteners. Fabrication and construction sections highlight tolerances, installation procedures, pretensioning methods, and corrosion-protection systems. QA/QC chapters embed ITP logic, nonconformance reporting, and acceptance criteria. Maintenance chapters address inspection frequencies, fatigue monitoring, corrosion checks, and replacement criteria, embedding reliability concepts and risk-based planning. By combining structured methodology, technical rigor, and lifecycle governance, the Bolt Connection Handbook delivers a professional, auditable, and field-usable reference. It strengthens technical assurance, minimizes risk, and establishes a credible baseline for safe, efficient, and compliant bolted connection engineering and construction.

Rp499.000
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Civil

HANDRAIL

The Industrial Handrail and Guardrail Systems Handbook Version 1.0 provides a comprehensive framework for the design, material selection, procurement, fabrication, welding, corrosion protection, inspection, transportation, installation, commissioning, and maintenance of industrial handrail and guardrail systems. It establishes a lifecycle methodology that integrates engineering design with practical execution and long-term reliability. Technical coverage includes geometry and ergonomic criteria, structural load paths, rail and post calculations, base plate and anchor considerations, and system options in carbon steel, stainless steel, aluminum, and FRP. Drawing and model coordination are emphasized to ensure consistency across disciplines. Welding quality, coating and galvanizing requirements, ITP development, material traceability, field release, maintenance frequency, reliability records, and failure-mode troubleshooting are systematically addressed. Worked calculation structures illustrate load distribution, post deflection, anchorage checks, and fatigue verification. Data tables summarize component functions, material options, dimensional standards, and inspection methods. Material lists, inspection checklists, maintenance procedures, technical flow diagrams, 3D engineering schematics, and field reference photography are integrated into each chapter to provide practical guidance. Execution chapters extend into machine setup, fabrication tolerances, tagging, bundling, logistics, lifting, installation, splicing, couplers, cover systems, and field adjustments. QA/QC chapters embed inspection and test plan (ITP) logic, acceptance criteria, field-release records, commissioning dossiers, and maintenance logs. Maintenance chapters address inspection frequencies, corrosion checks, joint integrity, and replacement criteria, embedding reliability concepts and risk-based planning. The handbook is organized into 28 technical chapters and 7 implementation appendices, totaling 225 planned A4 pages including front matter and a linked table of contents. Each chapter is supported by a distinct 3D engineering schematic and technical flow diagram, ensuring clarity and traceability. By combining structured methodology, technical rigor, and lifecycle governance, the Industrial Handrail and Guardrail Systems Handbook delivers a professional, auditable, and field-usable reference. It strengthens technical assurance, minimizes risk, and establishes a credible baseline for safe, efficient, and compliant handrail and guardrail engineering and construction across diverse industrial sectors.

Rp499.000
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Civil

STANDARD DRAWING FOR STAIRCASE

The Staircase Standard Drawing Handbook Version 1.0 presents a structured method for producing and controlling staircase standard drawings from concept through service. It establishes a lifecycle framework that integrates design, detailing, fabrication, installation, inspection, commissioning, and maintenance into a traceable and auditable process. The handbook covers staircase terminology, stair geometry, general arrangement drawings, and system types including straight, L-shaped, dog-leg, spiral, structural steel, steel pan, grating, reinforced concrete, and precast systems. It addresses handrails and guardrails, landings and mezzanine interfaces, bolted, welded, and anchored connections, anti-slip treatments, corrosion protection, accessibility, and egress considerations. Execution chapters extend into shop detailing, fabrication, transport, lifting, erection, inspection, commissioning, maintenance, procurement, and sector-specific applications. Technical content combines drawing requirements with engineering checks. Illustrative formulas include riser/going coordination, stair angle, sloping span, load distribution to stringers, simple beam bending and deflection, connection demand, and maintenance condition ranking. Worked examples are deliberately transparent, enabling engineers to replace illustrative inputs with project-approved values. Supporting resources include material lists, design review checklists, procurement controls, inspection and test plans (ITPs), field-release forms, maintenance frequencies, inspection records, and technical flow diagrams. Appendices provide reusable templates for requisition forms, inspection sheets, commissioning records, and maintenance logs, ensuring consistent application across diverse industrial sectors. The handbook emphasizes lifecycle assurance and traceability. Every staircase system should be traceable from design criteria and calculation, through material and fabrication records, to site inspection and final handover. This traceability improves safety, constructability, maintainability, and long-term reliability. By combining structured methodology, technical rigor, and lifecycle governance, the Staircase Standard Drawing Handbook delivers a professional, auditable, and field-usable reference. It strengthens technical assurance, minimizes risk, and establishes a credible baseline for safe, efficient, and compliant staircase engineering and construction.

Rp499.000
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Civil

STANDARD DRAWING FOR EXPANSION JOINT CIVIL

The Standard Drawing for Expansion Joints Handbook Version 1.0 provides a structured engineering framework for metallic, rubber, fabric, and structural expansion joints. It establishes a lifecycle methodology that integrates design, procurement, fabrication, installation, inspection, commissioning, and maintenance into a traceable and auditable process. Design chapters explain movement types, design inputs, selection logic, calculation notes, material and corrosion controls, and standard drawing content. Structural checks reconcile thermal growth, spring force, and pressure thrust with joint strength, fatigue resistance, and serviceability. Material sections emphasize durability, weldability, and compatibility with operating environments. Execution chapters extend into fabrication, welding requirements, coating and protection, procurement documents, transport, lifting, installation guidance, and field modification. QA/QC chapters embed inspection and test plan (ITP) concepts, inspection forms, acceptance criteria, field-release records, commissioning handover, and maintenance frequencies. Worked examples illustrate calculation notes for thermal growth, spring force, and pressure thrust. Technical tables summarize component functions, material options, dimensional data, inspection methods, and acceptance evidence. These resources provide quantitative control and traceable documentation across diverse industrial applications. Appendices include practical forms for drawing checks, ITP templates, receiving inspection records, installation release sheets, commissioning dossiers, and maintenance logs. Industrial application matrices highlight adaptability to oil and gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine projects. The handbook emphasizes lifecycle assurance and traceability. Every expansion joint should be traceable from design criteria and calculation, through material and fabrication records, to site inspection and final handover. This traceability improves safety, constructability, maintainability, and long-term reliability. By combining structured methodology, technical rigor, and lifecycle governance, the Standard Drawing for Expansion Joints Handbook delivers a professional, auditable, and field-usable reference. It strengthens technical assurance, minimizes risk, and establishes a credible baseline for safe, efficient, and compliant expansion joint engineering and construction.

Rp499.000
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Civil

STANDARD DRAWING FOR REINFORCED CONCRETE OIL DIKE

The Reinforced-Concrete Oil Dike Handbook Version 1.0 provides a complete engineering framework for secondary containment systems around aboveground storage tanks and associated equipment. It establishes a lifecycle methodology that integrates design, procurement, construction, inspection, commissioning, and maintenance into a traceable and auditable process. Design chapters cover containment capacity, geometry, site and geotechnical inputs, load definition, reinforced-concrete wall and slab design, joints and waterstops, penetrations, drainage and sump systems, concrete durability, reinforcement detailing, formwork, earthwork, construction logistics, quality control, tightness testing, HSE, commissioning, and maintenance. Each design element is reconciled with structural performance requirements to ensure strength, serviceability, durability, and compliance with environmental regulations. Calculation notes are presented as transparent worked examples rather than black-box outputs. Examples demonstrate how to structure assumptions, units, input sources, formulas, results, acceptance checks, and reviewer comments. Material sections connect technical properties with procurement controls such as submittals, certificates, traceability, storage, handling, shelf life, and inspection status. Construction chapters illustrate typical heavy-equipment and work-front interfaces while retaining the requirement for site-specific lifting, excavation, and traffic plans. QA/QC chapters embed inspection and test plan (ITP) concepts, inspection records, field-release forms, punch lists, and commissioning dossiers. Maintenance chapters address routine inspection, cracking, joint seals, drain functionality, protective linings, concrete deterioration, and repair strategies. Worked examples illustrate containment capacity checks, settlement monitoring, joint seal verification, and durability assessments. Appendices provide reusable templates for calculation notes, procurement forms, inspection checklists, commissioning records, maintenance logs, and industrial application matrices. The final chapters map the standard drawing approach across oil and gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine applications. Sector-specific notes highlight adaptability to diverse environments and regulatory frameworks. By combining structured methodology, technical rigor, and lifecycle governance, the Reinforced-Concrete Oil Dike Handbook delivers a professional, auditable, and field-usable reference. It strengthens technical assurance, minimizes risk, and establishes a credible baseline for safe, efficient, and compliant containment engineering and construction.

Rp499.000
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Civil

STANDARD DRAWING FOR BAR BENDING

The Standard Drawing and Bar Bending Practice Handbook Version 1.0 provides a comprehensive professional reference for reinforced-concrete construction. It establishes a lifecycle framework that integrates drawing conventions, bar marks, bar bending schedules, standard shapes, hooks, bend radii, anchorage concepts, cutting-length calculations, reinforcement mass estimation, machine setup, first-off inspection, fabrication tolerances, tagging, bundling, logistics, installation, splices, couplers, cover systems, inspection and test plan (ITP) controls, field inspection, maintenance, and reliability. Design chapters emphasize clarity and consistency in reinforcement documentation. Drawing conventions and bar marks are standardized to ensure traceability from design through fabrication. Bar bending schedules and standard shapes are reconciled with anchorage and bend-radius requirements, while cutting-length calculations and reinforcement mass estimation provide quantitative control. Execution chapters extend into machine setup, first-off inspection, fabrication tolerances, tagging, bundling, and logistics. Installation chapters cover splices, couplers, cover systems, and field adjustments. QA/QC chapters embed ITP logic, inspection forms, field-release records, commissioning handover, and maintenance frequencies. Worked calculation notes illustrate cutting-length determination, mass estimation, anchorage checks, and tolerance accumulation. Technical tables and diagrams provide dimensional standards, bend radii, and fabrication allowances. Appendices include material and procurement controls, inspection forms, commissioning records, maintenance logs, and industrial application matrices. Applications span oil and gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine projects. Sector-specific notes highlight adaptability to diverse environments and regulatory frameworks. The reference framework is aligned conceptually with current structural-concrete and reinforcement-documentation practice. The bibliography includes ACI CODE-318-25, BS 8666:2020, ISO 3766:2003, and SNI 2847:2019 as examples of commonly encountered references. Project-specific requirements must always be confirmed before design or fabrication use. By combining structured methodology, technical rigor, and lifecycle governance, the Standard Drawing and Bar Bending Practice Handbook delivers a professional, auditable, and field-usable reference. It strengthens technical assurance, minimizes risk, and establishes a credible baseline for safe, efficient, and compliant reinforcement engineering and construction.

Rp499.000
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Civil

STANDARD DRAWING FOR STEP EMBEDDED IN CONCRETE SEWER BOX

The Standard Drawing for Step Embedded in Concrete Sewer Box Handbook Version 1.0 provides a structured engineering framework for access steps permanently embedded in concrete sewer boxes. It covers dimensional arrangement, human factors, structural load paths, anchorage screening, reinforcement coordination, corrosion protection, anti-slip detailing, drawing requirements, BIM coordination, and construction tolerances. The handbook emphasizes integration of design intent with constructability, ensuring that embedded steps meet safety, durability, and accessibility requirements. Beyond the drawing itself, the handbook extends into execution and lifecycle assurance. Technical sections include worked calculation examples, tabulated design checks, material specifications, procurement controls, fabrication and coating requirements, inspection and test plan (ITP) logic, acceptance criteria, field-release records, commissioning forms, maintenance frequencies, reliability concepts, risk ranking, industrial-sector applications, and technical flow diagrams. These resources provide traceable evidence linking design assumptions to measurable acceptance criteria. The approach is deliberately project-ready. Every numerical example is paired with verification notes, ensuring that calculations are auditable and aligned with governing codes. Execution phases are linked to quality records, including inspection forms, hold and witness points, and commissioning dossiers. Maintenance chapters connect observed defects to inspection frequency and repair decisions, embedding reliability and risk-based planning into the lifecycle. Worked examples illustrate load-path verification, anchorage checks, slip-resistance calculations, and dimensional tolerance reconciliation. Appendices provide reusable templates for procurement forms, inspection sheets, commissioning records, maintenance logs, and sector application matrices. These tools enable adaptation into project-specific procedures and standard details. The handbook emphasizes lifecycle traceability: every embedded step should be traceable from design criteria and calculation, through material and fabrication records, to site inspection and final handover. This traceability improves safety, constructability, maintainability, and long-term reliability. By combining structured methodology, technical rigor, and lifecycle governance, the Standard Drawing for Step Embedded in Concrete Sewer Box Handbook delivers a professional, auditable, and field-usable reference. It strengthens technical assurance, minimizes risk, and establishes a credible baseline for safe, efficient, and compliant sewer-box step engineering and construction.

Rp499.000
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Civil

STANDARD DRAWING FOR HANDLE OF PIT COVER

The Standard Drawing for Handle of Pit Cover Handbook Version 1.0 provides a structured engineering reference for the selection, design, detailing, fabrication, protection, installation, inspection, commissioning, and maintenance of handles used on pit covers, access covers, and related removable panels. It establishes a consistent design approach that begins with functional need and extends to verified load paths, emphasizing the interfaces between the handle and the cover body, welds or fasteners, stiffening elements, supporting frame, and operating environment. Design chapters address geometry, ergonomics, load transfer, and durability. Material selection covers carbon steel, stainless steel, and coated alloys, with attention to corrosion resistance, weldability, and maintainability. Detailing sections include anchor welds, bolted fasteners, reinforcement plates, and dimensional tolerances. Structural checks reconcile applied loads with handle strength, fatigue resistance, and serviceability. Execution chapters extend into fabrication, welding procedures, coating and galvanizing, transport, lifting, installation, and field modification. Inspection and commissioning chapters embed inspection and test plan (ITP) concepts, hold and witness points, acceptance records, field-release documentation, and commissioning handover. Maintenance chapters provide inspection frequencies, lubrication, corrosion checks, and replacement criteria. Worked examples illustrate calculation notes for handle strength, weld sizing, bolt capacity, ergonomic clearance, and fatigue verification. Technical tables and diagrams provide dimensional tolerances, coating thickness, and inspection checklists. Appendices include reusable templates for requisition forms, procurement records, inspection sheets, commissioning logs, maintenance records, and industrial application matrices. The handbook emphasizes lifecycle traceability. Every installed handle should be traceable from design criteria and calculation, through material and fabrication records, to site inspection and final handover dossiers. This traceability improves safety, constructability, maintainability, and long-term reliability. By combining structured methodology, technical rigor, and lifecycle governance, the Standard Drawing for Handle of Pit Cover Handbook delivers a professional, auditable, and field-usable reference. It strengthens technical assurance, minimizes risk, and establishes a credible baseline for safe, efficient, and compliant pit-cover handle engineering and construction.

Rp499.000
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Civil

FOUNDATION DESIGN HORIZONTAL VESSEL

The Foundation Design Horizontal Vessel Handbook Version 1.0 has been prepared as a practical reference for civil and structural engineers, mechanical engineers, piping engineers, designers, construction personnel, inspectors, commissioning teams, and maintenance staff involved with horizontal process vessels. It establishes a lifecycle methodology that integrates design basis, loading, geotechnical input, foundation selection, reinforced-concrete detailing, anchor bolt design, construction, installation, QA/QC, commissioning, maintenance, material procurement, and industrial application. Horizontal vessels may appear simple, yet their foundations must safely transmit dead, operating, hydrotest, wind, seismic, piping, nozzle, thermal, erection, and accidental actions while maintaining alignment and accessibility. The handbook emphasizes combining calculation concepts with constructability and inspection practice to ensure reliability and safety. Design chapters cover load combinations, soil bearing capacity, settlement checks, sliding and overturning stability, uplift resistance, reinforced-concrete strength, anchor bolt groups, and construction-stage conditions. Execution chapters extend into excavation, subgrade preparation, reinforcement placement, formwork, anchor templates, concrete placement, curing, grouting, heavy lifting, equipment setting, and survey control. QA/QC chapters embed inspection and test plan (ITP) concepts, inspection forms, field-release records, commissioning handover, and maintenance frequencies. Worked examples illustrate calculation notes for bearing pressure, settlement prediction, anchor bolt design, and load reconciliation. Technical tables and diagrams provide dimensional tolerances, reinforcement detailing, and lifting arrangements. Appendices include practical checklists, procurement forms, inspection templates, commissioning records, maintenance logs, and industrial application matrices. The handbook emphasizes clear interfaces and traceable engineering records. Every foundation design is reconciled with project criteria, geotechnical data, and equipment requirements, ensuring auditable compliance. Preventive maintenance schedules, inspection frequencies, and reliability indicators are embedded to sustain long-term performance. Use of the handbook must always be aligned with approved project criteria and the latest adopted standards. Project-specific requirements govern, ensuring that the framework remains adaptable yet compliant. By combining structured methodology, technical rigor, and lifecycle governance, the Foundation Design Horizontal Vessel Handbook delivers a professional, auditable, and field-usable reference for safe, efficient, and compliant foundation engineering.

Rp499.000
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Civil

FOUNDATION DESIGN VERTICAL CYLINDRICAL

The Vertical Cylindrical Tank and Vessel Foundation Handbook Version 1.0 presents a comprehensive engineering approach to foundations for vertical cylindrical tanks, silos, process vessels, and similar equipment. It establishes a lifecycle framework that integrates design, procurement, fabrication, construction, inspection, commissioning, and maintenance into a traceable and auditable process. Design chapters cover the preparation of design basis, applicable codes and standards, geotechnical investigation, load development, foundation selection, soil bearing capacity, settlement analysis, stability checks, seismic effects, reinforced-concrete design, anchorage systems, and construction-stage conditions. Each design element is reconciled with structural performance requirements to ensure strength, stiffness, serviceability, fatigue resistance, and durability. Execution chapters extend the design into excavation, subgrade preparation, reinforcement placement, formwork, anchor templates, concrete placement, curing, grouting, heavy lifting, equipment setting, and survey control. QA/QC chapters embed inspection and test plan (ITP) concepts, inspection forms, field-release records, commissioning handover, and maintenance frequencies. These sections emphasize traceability and compliance with governing standards. Worked examples illustrate calculation notes for soil bearing checks, settlement predictions, overturning stability, anchorage design, and seismic load reconciliation. Technical tables and diagrams provide dimensional tolerances, reinforcement detailing, and lifting arrangements. Appendices include practical checklists, procurement forms, inspection templates, commissioning records, maintenance logs, and industrial application matrices. The handbook emphasizes practical integration across design, procurement, fabrication interfaces, transport and erection constraints, heavy-equipment access, construction, testing, and long-term reliability. It highlights the importance of lifecycle assurance, treating foundations as integrated engineering and operational assets. Preventive maintenance schedules, inspection frequencies, and reliability indicators are embedded to sustain long-term performance. The reference framework is aligned with current structural concrete and loading practice and with widely used process-industry guidance for static equipment foundations. At the date of this edition, ACI has released ACI CODE-318-25, ASCE lists ASCE/SEI 7-22 as its current general loading standard, API has published API Standard 650 Thirteenth Edition for welded oil storage tanks, and PIP continues to list its Vertical Vessel Foundation Design Guide. Project adoption shall always be verified before use. By combining structured methodology, technical rigor, and lifecycle governance, the Vertical Cylindrical Tank and Vessel Foundation Handbook delivers a professional, auditable, and field-usable reference.

Rp499.000
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Civil

FOUNDATION DESIGN TOWER VERTICAL CYLINDRICAL

The Tower-Type and Vertical Cylindrical Equipment Foundation Handbook Version 1.0 provides a comprehensive technical framework for foundations supporting process columns, reactors, scrubbers, vertical drums, tall vessels, stacks, and related shell-supported equipment. It establishes a lifecycle methodology that connects design, construction, commissioning, and maintenance into a traceable and auditable workflow. Primary design topics include load combinations, bearing pressure, settlement, overturning, sliding, uplift, reinforced-concrete strength, pedestal design, anchor-bolt groups, grout interfaces, seismic and wind effects, thermal and piping reactions, and construction-stage conditions. Each design element is reconciled with structural performance requirements to ensure strength, stiffness, serviceability, fatigue resistance, and durability. Execution chapters extend the design into excavation, subgrade preparation, reinforcement placement, formwork, anchor templates, concrete placement, curing, grouting, heavy lifting, equipment setting, and survey control. QA/QC chapters embed inspection and test plan (ITP) concepts, inspection forms, field-release records, commissioning handover, and maintenance frequencies. These sections emphasize traceability and compliance with governing standards. Worked examples illustrate calculation notes for bearing pressure checks, overturning stability, anchor-bolt group design, and grout interface verification. Technical tables and diagrams provide dimensional tolerances, reinforcement detailing, and lifting arrangements. Appendices include practical checklists and record formats that can be adapted into project procedures, ensuring consistency across diverse industrial applications. The reference framework is aligned with current structural concrete and loading practice and with widely used process-industry guidance for static equipment foundations. At the date of this edition, ACI has released ACI CODE-318-25, ASCE lists ASCE/SEI 7-22 as its current general loading standard, API has published API Standard 650 Thirteenth Edition for welded oil storage tanks, and PIP continues to list its Vertical Vessel Foundation Design Guide. Project adoption shall always be verified before use. By combining structured methodology, technical rigor, and lifecycle governance, the Tower-Type and Vertical Cylindrical Equipment Foundation Handbook delivers a professional, auditable, and field-usable reference. It strengthens technical assurance, minimizes risk, and establishes a credible baseline for safe, efficient, and compliant foundation engineering and construction

Rp499.000
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Civil

PREPARATION FOUNDATION DESIGN

The Preparation Foundation Design Handbook provides a comprehensive framework for preparing foundation designs across industrial, building, infrastructure, marine, and process-facility applications. It establishes a lifecycle methodology that integrates design basis preparation, survey and geotechnical inputs, load transfer mechanisms, foundation selection, shallow and deep foundation calculations, reinforced-concrete detailing, anchor systems, dynamic equipment foundations, specialized industrial foundations, construction engineering, quality assurance, inspection, field release, commissioning, and maintenance. The handbook emphasizes structured deliverables at each lifecycle stage. Design basis chapters reconcile geotechnical data, survey records, and environmental loads with foundation type selection. Calculation notes illustrate bearing capacity, settlement checks, dynamic response, and reinforcement detailing. Execution chapters connect design intent to construction engineering, covering excavation, shoring, dewatering, formwork, reinforcement placement, concreting, curing, and backfill. Inspection and commissioning chapters embed hold points, witness points, acceptance criteria, and turnover documentation. Lifecycle stage integration is reinforced through traceable evidence. Typical deliverables include calculation sheets, design drawings, material specifications, procurement records, inspection and test plans (ITPs), nonconformance reports, field-release forms, commissioning dossiers, and maintenance logs. Each chapter includes technical discussion, engineering workflow, field-style visuals, unique three-dimensional schematics, practical checks, and tabulated acceptance records. Appendices provide reusable templates for calculation notes, procurement forms, inspection checklists, commissioning sheets, maintenance records, industrial application matrices, and reference details. These resources enable project teams to adapt the framework to project-specific contracts and regulatory environments while maintaining compliance with governing standards. The handbook emphasizes lifecycle assurance, treating foundations as integrated engineering and operational assets. Preventive maintenance schedules, inspection frequencies, and reliability indicators are embedded to sustain long-term performance. By combining structured methodology, technical rigor, and lifecycle governance, the Preparation Foundation Design Handbook delivers a professional, auditable, and field-usable reference. It strengthens technical assurance, minimizes risk, and establishes a credible baseline for safe, efficient, and compliant foundation engineering and construction.

Rp499.000
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Civil

BASIC REQUIREMENT STEEL STRUCTURE

The Basic Requirement Steel Structure Handbook Version 1.0 defines a comprehensive engineering workflow for structural steel from initial design basis through fabrication, transportation, erection, commissioning interfaces, and maintenance. The content is organized into thirty technical chapters and seven appendices, with each chapter integrating design intent, practical equations, material and equipment considerations, fabrication and construction requirements, inspection controls, worked examples, lifecycle checks, and representative visuals. The handbook covers fundamental topics such as load paths, gravity and environmental actions, material selection, member strength and stability, serviceability, and connection detailing. Specialized chapters address base plates, access structures, pipe racks, industrial buildings, offshore and corrosive service environments, and fire protection. Detailing and BIM integration are emphasized to ensure constructability and digital traceability. Procurement, fabrication, quality control, nondestructive testing (NDT), heavy lifting, field installation, completion, and structural integrity management are systematically linked to inspection and test plans (ITPs), nonconformance reporting, and commissioning protocols. Worked examples illustrate calculation notes for member strength, stability checks, fatigue resistance, and serviceability limits. Technical tables and diagrams provide clear guidance for dimensional tolerances, welding parameters, coating thickness, and lifting arrangements. Appendices supply calculation-note templates, material and procurement requirements, inspection and ITP forms, field-release and commissioning sheets, maintenance procedures, industrial-sector application matrices, and image/source credits. The handbook emphasizes lifecycle assurance, treating steel structures as integrated engineering and operational assets. Preventive maintenance schedules, inspection frequencies, and reliability indicators are embedded to sustain long-term performance. Sector-specific notes highlight adaptability to oil and gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine projects. By combining structured methodology, technical rigor, and lifecycle governance, the Basic Requirement Steel Structure Handbook delivers a professional, auditable, and field-usable reference. It strengthens technical assurance, minimizes risk, and establishes a credible baseline for safe, efficient, and compliant steel structure engineering and construction.

Rp499.000
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Civil

FLOOR GRATING STEEL STRUCTURE

The Floor Grating Steel Structures Handbook Version 1.0 presents an integrated method for engineering floor grating systems used in industrial plants, offshore and marine facilities, utility systems, mining, manufacturing, and infrastructure projects. It establishes a lifecycle framework that connects design, procurement, fabrication, installation, inspection, handover, and maintenance into a traceable and auditable process. The handbook addresses grating type selection, load definition, bearing-bar strength and serviceability, supporting steel, clips and fasteners, openings, stair treads, corrosion protection, procurement, vendor detailing, fabrication, inspection, packing, lifting, installation, field modification, and maintenance. Each technical subject is linked to practical project workflows, ensuring constructability and long-term reliability. Technical sections include calculation notes, worked examples, material specification requirements, procurement controls, inspection and test plan (ITP) logic, field release criteria, maintenance frequencies, and integrity records. Appendices provide reusable forms and checklists for requisition data sheets, inspection records, commissioning forms, and maintenance logs, enabling project teams to apply consistent practices across diverse industrial sectors. The central principle is lifecycle traceability. Every installed panel should be traceable from design criteria and calculation, through material and fabrication records, to site inspection and the final handover dossier. This traceability improves safety, constructability, maintainability, and reliability by ensuring that engineering assumptions are reconciled with field evidence. Worked examples illustrate calculation logic for load distribution, bearing-bar deflection, clip spacing, and corrosion-protection allowances. Templates provide inspection checklists, dimensional tolerance records, and maintenance schedules. Industrial application notes span oil and gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine facilities. By combining structured methodology, technical rigor, and lifecycle governance, the Floor Grating Steel Structures Handbook delivers a professional, auditable, and field-usable reference. It strengthens technical assurance, minimizes risk, and establishes a credible baseline for safe, efficient, and compliant floor grating engineering and construction.

Rp499.000
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Civil

REQUISITION FOR STEEL

The Structural and Miscellaneous Steel Requisition Handbook Version 1.0 presents a professional method for preparing, reviewing, and controlling requisitions for structural and miscellaneous steel. Its scope covers carbon, alloy, and stainless products, including sections, plates, tubulars, bars, and fasteners. The handbook integrates welding and corrosion protection requirements, material take-off procedures, supplier evaluation, certification and traceability, fabrication, dimensional and nondestructive testing (NDT) inspection, ITP/NCR control, logistics, receiving, heavy lifting, erection, completion, handover, maintenance, and reliability. The technical framework emphasizes the use of project-approved codes and standards rather than a single universal specification. Common reference families include material product standards, structural design requirements, welding standards, coating and galvanizing specifications, dimensional tolerances, and inspection requirements. The handbook repeatedly highlights order of precedence, documented deviations, and objective evidence to ensure traceable compliance. Calculation notes and worked examples are embedded to illustrate theoretical mass determination, plate and section quantity checks, thermal expansion allowances, carbon equivalent evaluation, welding heat input, coating film thickness, material take-off (MTO) allowances, technical-bid scoring, traceability KPIs, dimensional tolerance accumulation, defect-rate monitoring, cargo center-of-gravity checks, sling-load calculations, and maintenance availability assessments. These examples are educational in nature and must always be verified against project-specific requirements. Supporting resources include editable-style tables and forms for requisition data sheets, procurement schedules, inspection records, test reports, and close-out dossiers. Appendices provide templates for ITPs, NCRs, inspection checklists, commissioning forms, and maintenance records. Industrial application notes span oil and gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine projects. By combining structured methodology, technical rigor, and lifecycle governance, the Structural and Miscellaneous Steel Requisition Handbook delivers a professional, auditable, and field-usable reference. It strengthens technical assurance, minimizes risk, and establishes a credible baseline for safe, efficient, and compliant steel requisition practices across diverse industrial sectors.

Rp499.000
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Civil

DESIGN TABLE TYPE STEEL STRUCTURE

The Structural Steel Transparent Design Tables Handbook Version 1.0 presents a structured method for the design and lifecycle control of structural steel using transparent design tables. The methodology organizes design demand, section properties, resistance checks, and utilization into a traceable table architecture while retaining explicit links to structural analysis, stability, connection behavior, serviceability, fatigue, fabrication, and field constraints. Technical content covers steel materials and section databases, tension and compression member behavior, beam and beam-column performance, stability and bracing requirements, trusses and built-up members, bolted and welded connections, base plates and anchor interfaces, deflection and vibration limits, dynamic and fatigue considerations, corrosion and fire protection, shop fabrication, transportation, erection, QA/QC, inspection and test plans (ITPs), nondestructive testing (NDT), field release, commissioning, maintenance, reliability, and industrial-sector applications. Calculation notes and worked examples are presented in SI units with simplified screening relations. Clear instructions emphasize that project-specific code checks must be completed before release. The transparent table format ensures that each design step is auditable, traceable, and linked to governing standards. The handbook also provides example material lists, procurement controls, inspection checklists, forms, maintenance frequencies, condition records, technical flow diagrams, and an industrial application matrix. Applications span oil and gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine projects. By combining structured methodology, technical rigor, and lifecycle governance, the Structural Steel Transparent Design Tables Handbook delivers both a design reference and a documentation framework. It strengthens technical assurance, minimizes risk, and establishes a credible baseline for safe, efficient, and compliant structural steel engineering and construction.

Rp499.000
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Civil

STANDARD CHECK SHEET STEEL STRUCTURE

The Standard Check Sheet Steel Structure Handbook Version 1.0 is a comprehensive QA/QC and field engineering reference for structural-steel work from design through maintenance. It provides a practical framework for building and using check sheets that link project requirements to inspection actions, hold/witness/review points, measurable acceptance criteria, objective evidence, nonconformity control, and formal release. The technical content covers structural material certification and traceability, shop drawings and piece marking, receiving and preservation, cutting, drilling, and forming. Welding procedures, personnel qualifications, and consumable controls are addressed alongside shop fit-up, visual inspection, and nondestructive examination. High-strength bolting, base plates, and anchor rods are detailed to ensure proper load transfer and durability. Surface preparation, blast cleaning, coating, and hot-dip galvanizing are included to maintain corrosion protection and long-term reliability. Construction chapters emphasize trial assembly, transport, site receiving, crane and rigging planning, and erection sequencing. Column, beam, brace, and truss erection are linked to field connections, secondary steel installation, and as-built survey requirements. Mechanical completion and turnover procedures are embedded to ensure traceable acceptance. Maintenance and reliability sections provide inspection frequencies, corrective actions, and lifecycle extension strategies. Worked examples illustrate how check sheets reconcile design assumptions with inspection evidence. Templates include inspection forms, ITP matrices, NCR records, punch-list closure sheets, and commissioning release documents. These resources enable project teams to apply consistent practices, demonstrate compliance, and maintain auditable records across diverse industrial sectors. The handbook emphasizes lifecycle assurance, treating steel structures as integrated engineering and operational assets. By combining structured methodology, technical rigor, and traceable documentation, it delivers a professional, auditable, and field-usable reference. The intended outcome is a safe, inspectable, maintainable, and reliable structural-steel system that performs consistently through its design life, reducing rework, nonconformities, and operational risk. The Standard Check Sheet Steel Structure Handbook establishes a credible baseline for safe, efficient, and compliant steel structure engineering and construction.

Rp499.000
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Civil

MEASUREMENT FOUNDATION

The Foundation Measurement Handbook provides a lifecycle technical framework for the measurement and verification of foundations across onshore, industrial, infrastructure, coastal, marine, and offshore facilities. Typical applications include equipment foundations, pipe racks, tanks, buildings, substations, rotating and static equipment bases, jetties, wharves, trestles, dolphins, offshore structures, piles, drilled shafts, caissons, gravity bases, anchors, fenders, and bollards. The handbook integrates geodetic control, dimensional control, installation monitoring, inspection and testing, as-built verification, and long-term integrity monitoring. Technical subjects include coordinate and vertical datums, uncertainty budgets, GNSS and total-station control, geotechnical data interfaces, equipment baseplate and anchor-bolt geometry, structural and piping-support foundation control, pile position and rake, pile driving records, drilled foundation geometry, caisson and structural alignment, grout and baseplate measurement, fabrication distortion, heavy-lift positioning, hydrographic and bathymetric survey where applicable, instrument calibration, inspection and test plan (ITP) logic, QA/QC procedures, load testing, settlement, tilt and deformation monitoring, corrosion and scour surveys where applicable, commissioning, and digital handover. Worked examples illustrate calculation notes for pile rake verification, settlement monitoring, tilt measurement, and dimensional reconciliation. Technical tables and inspection checklists provide traceable records for survey data, fabrication tolerances, anchor-bolt positions, and heavy-lift alignment. Field release forms, commissioning records, and maintenance logs are embedded to ensure lifecycle assurance. The handbook emphasizes traceability and reliability. Each chapter connects design assumptions with measurable parameters, ensuring that foundation geometry and performance remain auditable throughout the project lifecycle. Preventive maintenance schedules, inspection frequencies, and reliability indicators are included to sustain long-term integrity. Applications span oil and gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine projects. Sector-specific notes highlight adaptability to diverse environments and regulatory frameworks. By combining structured methodology, technical rigor, and lifecycle governance, the Foundation Measurement Handbook delivers a professional, auditable, and field-usable reference. It strengthens technical assurance, minimizes risk, and establishes a credible baseline for safe, efficient, and compliant foundation measurement practices.

Rp499.000
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Civil

FOUNDATION STAIRWAY AND LADDER

The Foundation Stairway and Ladder Handbook provides a lifecycle technical reference for the engineering and execution of foundation-supported stairway and ladder systems. It integrates access geometry, structural loading, steel member design, concrete foundation behavior, anchor-bolt and base-plate detailing, materials, fabrication, welding, galvanizing and coating, transportation, lifting, installation, inspection, commissioning, and maintenance. Emphasis is placed on interfaces and records. Survey data, geotechnical input, load paths, fabrication tolerances, as-built anchor positions, inspection hold points, punch-list closure, and maintenance history are systematically addressed. Each chapter includes technical discussion, a dedicated engineering workflow, a field-style visual reference, unique three-dimensional engineering schematics, practical checks, and tabulated acceptance records. Design chapters reconcile geometry with structural performance, ensuring that stairway and ladder systems meet strength, stiffness, serviceability, and durability requirements. Construction chapters connect these design inputs to fabrication quality, welding procedures, coating systems, lifting operations, and installation tolerances. Inspection and commissioning chapters embed hold and witness points, acceptance logic, and turnover documentation to maintain traceability. Worked examples illustrate calculation notes for load transfer, anchor-bolt sizing, and member stability. Appendices provide repeatable templates including material and procurement forms, inspection and test plan (ITP) sheets, construction release records, commissioning forms, maintenance logs, industrial application matrices, and reference details. These resources enable project teams to adapt the framework to specific project requirements while maintaining compliance with governing standards. The handbook emphasizes lifecycle assurance, treating stairway and ladder systems as integrated engineering and operational assets. Preventive maintenance schedules, inspection frequencies, and reliability indicators are embedded to sustain long-term performance. By combining structured methodology, technical rigor, and lifecycle governance, the Foundation Stairway and Ladder Handbook delivers a professional, auditable, and field-usable reference. It strengthens technical assurance, minimizes risk, and establishes a credible baseline for safe, efficient, and compliant stairway and ladder engineering and construction across industrial, infrastructure, and marine projects.

Rp499.000
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Civil

MOORING FACILITY

The Marine Mooring Facilities Handbook Version 1.0 provides a comprehensive technical framework for the design, construction, commissioning, and lifecycle management of marine mooring facilities serving oil and gas, petrochemical, chemical, power, water and wastewater, mining, manufacturing, offshore, and infrastructure/marine applications. It covers fixed-berth facilities, mooring and breasting dolphins, jetty heads, access catwalks, fenders, bollards, quick release hooks, capstans, fairleads, mooring lines, foundations, corrosion protection, electrical and instrumentation systems, transfer-system interfaces, marine construction, commissioning, and lifecycle integrity. The engineering method begins with site characterization and design-vessel definition, then develops berth arrangement, environmental loads, mooring analysis, and berthing energy. Structural and foundation systems are sized to transfer these actions with suitable strength, stiffness, serviceability, fatigue resistance, and durability. Equipment is specified with certified capacities, controlled interfaces, and maintainable arrangements. Procurement and fabrication controls are linked to inspection and test plans (ITPs), material traceability, welding, non-destructive testing (NDT), dimensional surveys, preservation, and delivery requirements. Construction chapters address loadout, sea fastening, lifting, piling, positioning, temporary works, and marine spread coordination. Pre-commissioning and commissioning chapters convert design requirements into measurable acceptance criteria, including equipment functional tests, hook or bollard load verification where specified, monitoring-system checks, navigation aids, electrical integrity, punch-list control, and turnover records. Operations and maintenance chapters provide berthing and mooring sequences, HSE and SIMOPS controls, periodic inspection, reliability methods, and life-extension planning. Key features include: Integrated design basis and code hierarchy. Metocean, geotechnical, and vessel data controls. Mooring and fender calculation notes with worked examples. Material specifications, procurement controls, and vendor surveillance. Fabrication, installation, ITP, field release, and commissioning forms. Maintenance, reliability, and inspection-record templates. Industrial-sector application matrix and project handover guidance. By combining structured methodology, technical rigor, and lifecycle assurance, the Marine Mooring Facilities Handbook delivers a professional, auditable, and field-usable reference. It strengthens technical assurance, minimizes risk, and establishes a credible baseline for safe, efficient, and compliant marine mooring practices.

Rp499.000
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Civil

DREDGING WORK MARINE MOORING

The Dredging Work Marine Mooring Handbook Version 1.0 provides a comprehensive engineering and field reference for dredging activities associated with marine and mooring facilities. It addresses capital and maintenance dredging, cutter suction dredgers (CSD), trailing suction hopper dredgers (TSHD), mechanical dredging systems, pumps, cutters, pipelines, booster stations, surveys, production estimating, dredging tolerances, sediment characterization, disposal and beneficial use, reclamation, berth and mooring interfaces, heavy equipment, health, safety and environment (HSE) controls, quality assurance and quality control (QA/QC), procurement, commissioning, maintenance, and project closeout. The handbook integrates technical theory with practical controls. Calculation notes cover dredging volume estimation, survey uncertainty, CSD/TSHD/mechanical production rates, pump power requirements, pipeline friction losses, berth depth reconciliation, placement volumes, reliability indicators, and project control metrics. These worked examples are intentionally simplified to demonstrate workflow organization while reinforcing engineering reasoning. Inspection and commissioning sections include hold and witness points, acceptance records, field release documentation, mechanical completion protocols, and performance trial records. Material specifications and procurement controls address wear resistance, pressure ratings, traceability, preservation, and vendor documentation requirements. Industrial applications are mapped across oil and gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, and infrastructure/marine sectors. Sector-specific notes highlight adaptability to diverse environments and regulatory frameworks. The handbook emphasizes lifecycle assurance, treating dredging and mooring activities as integrated engineering and operational systems. Reliability procedures, preventive maintenance schedules, and environmental safeguards are embedded to sustain long-term performance while minimizing ecological impact. By combining structured methodology, technical rigor, and traceable documentation, the Dredging Work Marine Mooring Handbook delivers a professional, auditable, and field-usable reference. It strengthens technical assurance, minimizes risk, and establishes a credible baseline for safe, efficient, and compliant dredging practices in support of marine and mooring facilities.

Rp499.000
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Civil

SELECTION PIPE MARINE MOORING FACILITIES

The Pipe and Marine Transfer Facilities Handbook Version 1.0 presents a comprehensive engineering framework for selecting pipe materials, components, coatings, joints, supports, and marine transfer interfaces while integrating the associated mooring systems required to keep vessels safely positioned at a berth or offshore transfer point. It is structured as a lifecycle reference, ensuring continuity from design through operation and eventual decommissioning. Design chapters cover data requirements, code hierarchy, line classification, material selection, wall-thickness and hydraulic calculations, transient control, and corrosion protection. Jetty layout, seawater and firewater services, transfer hoses, loading arms, mooring lines, berth hardware, and submarine pipelines are addressed with emphasis on constructability and reliability. Structural and hydraulic considerations are linked to geotechnical inputs and operational safety. Execution chapters detail fabrication, welding, non-destructive examination (NDE), procurement, construction, precommissioning, and integrity management. Each activity is supported by inspection and test plan (ITP) concepts, field-release forms, commissioning records, and maintenance frequencies. Worked examples illustrate calculation logic for hydraulic sizing, wall-thickness checks, transient surge control, and mooring capacity reconciliation. Technical tables, inspection checklists, and material control matrices provide practical tools for project teams. The handbook emphasizes traceability and lifecycle assurance. It integrates engineering theory with field execution, ensuring that design assumptions are consistently verified against measurable parameters and documented acceptance criteria. Reliability indicators and preventive maintenance schedules are embedded to sustain long-term performance. Applications span oil and gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine sectors. Sector-specific notes highlight adaptability to diverse environments and regulatory frameworks. By combining structured methodology, technical rigor, and lifecycle governance, the Pipe and Marine Transfer Facilities Handbook delivers a professional, auditable, and field-usable reference. It strengthens technical assurance, minimizes risk, and establishes a credible baseline for safe, efficient, and compliant pipe and marine transfer facility engineering and construction.

Rp499.000
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Civil

WELL DRILLING MARINE MOORING FACILITIES

The Well Drilling Marine Mooring Facilities Handbook Version 1.0 provides an integrated technical framework for well drilling, marine, and mooring facilities from concept through decommissioning. It establishes a lifecycle methodology that connects design inputs, rig systems, well control, drilling fluids, tubulars, wellhead and riser interfaces, mooring equipment, station-keeping analysis, marine operations, fabrication quality, logistics, offshore installation, testing, commissioning, integrity management, maintenance, emergency preparedness, and project close-out. Engineering theory is consistently linked to field execution through simplified formulas, worked examples, design-input tables, material specifications, procurement controls, inspection and test plans (ITPs), commissioning records, maintenance frequencies, and reliability indicators. Each chapter includes a distinct high-resolution three-dimensional engineering illustration, field-reference visual, and technical flow diagram to support visual learning without repeating identical imagery. Design chapters emphasize the importance of dynamic response, well control integrity, and mooring reliability under environmental loads. Construction and execution chapters connect these requirements to fabrication quality, offshore installation procedures, survey control, inspection hold points, and commissioning protocols. Maintenance and integrity management sections highlight preventive measures, inspection frequencies, and emergency preparedness to ensure long-term operational reliability. Worked examples illustrate calculation logic for station-keeping analysis, riser stress checks, and mooring capacity reconciliation. Appendices provide reusable templates for inspection records, commissioning forms, maintenance logs, procurement matrices, and industrial-sector adaptation notes. Sector guidance is included for oil and gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine applications. Although the primary focus is marine well drilling and mooring facilities, the engineering control principles are broadly applicable to other critical marine construction and offshore support systems. By combining structured methodology, technical rigor, and lifecycle assurance, the Well Drilling Marine Mooring Facilities Handbook delivers a professional, auditable, and field-usable reference. It strengthens technical assurance, minimizes risk, and establishes a credible baseline for safe, efficient, and compliant marine drilling and mooring practices.

Rp499.000
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Civil

ASPHALT PROTECTIVE COATING

The Asphalt Protective Coating Handbook provides a structured engineering reference for asphalt protective coating systems applied to steel, concrete, and related industrial assets. It integrates design principles, materials control, surface preparation, application methods, QA/QC, inspection and testing, calculation notes, equipment and logistics, construction integration, commissioning, safety, maintenance, and reliability. The handbook is organized as a lifecycle document, ensuring continuity from design through long-term operation. Technical chapters address coating system selection, substrate preparation, compatibility of asphalt-based materials, corrosion protection strategies, and constructability requirements. Application methods include brush, spray, and mechanical techniques, supported by equipment specifications and logistics planning. QA/QC sections detail inspection hold points, test procedures, calibration requirements, and documentation standards. Worked calculation notes illustrate coverage rates, thickness control, and curing times, reinforcing engineering reasoning without prescribing project-specific values. Supporting resources include material specification matrices, inspection and test plans (ITPs), checklists, inspection forms, field release templates, commissioning records, and maintenance schedules. Reliability guidance emphasizes preventive maintenance, inspection frequencies, and corrective actions to sustain long-term performance. Each chapter begins on a new page and incorporates a distinct three-dimensional technical schematic and field-style reference visual to connect theoretical content with practical execution. Industrial application guidance is mapped to oil and gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine sectors. Sector-specific notes highlight adaptability to diverse environments and regulatory frameworks. The handbook emphasizes lifecycle assurance, treating asphalt protective coating systems as integrated engineering and operational assets. By combining structured methodology, technical rigor, and traceable documentation, it delivers a professional, auditable, and field-usable reference. The intended outcome is a safe, inspectable, maintainable, and reliable coating system that performs consistently through its design life, reducing corrosion risk, uncontrolled releases, and construction rework. The Asphalt Protective Coating Handbook establishes a credible baseline for safe, efficient, and compliant coating practices across multidisciplinary industrial projects.

Rp499.000
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Civil

DRIP FUNNEL UNDERGROUND FACILITIES

The Drip Funnel Underground Facilities Handbook provides a comprehensive engineering reference for the design, procurement, fabrication, installation, testing, commissioning, operation, and maintenance of drip funnel underground facilities. Organized as a lifecycle handbook rather than a single-discipline specification, it ensures continuity from concept through long-term reliability. Technical coverage includes funnel configuration, hydraulic sizing, outlet and surge capacity, material compatibility, corrosion protection, concrete chamber interfaces, underground layout, structural and construction loads, and detailed three-dimensional drawing requirements. Fabrication controls, welding procedures, non-destructive examination (NDE), coating systems, installation practices, backfill requirements, inspection protocols, and reliability considerations are integrated to maintain traceability and compliance. Worked calculation examples illustrate hydraulic sizing, surge capacity checks, and material compatibility assessments. Supporting resources include material and procurement requirements, inspection and test plan (ITP) logic, inspection checklists, field release forms, commissioning records, maintenance schedules, inspection logs, industry application matrices, technical flow diagrams, and case-study style examples. These elements provide project teams with practical tools to manage risk and sustain performance. References have been aligned with current official publisher information available during preparation, including ASME B31.3‑2024, ASME B16.5‑2025, ACI CODE‑318‑25, ASTM A312/A312M‑25, AMPP/NACE SP0169‑2024, and the published ISO 15156:2020 series. Project users are reminded to verify the edition adopted by their contract and jurisdiction to ensure compliance with governing requirements. The handbook emphasizes lifecycle assurance, treating drip funnel underground facilities as integrated engineering and operational assets. The intended outcome is a safe, inspectable, maintainable, and traceable facility that performs reliably through its design life while reducing uncontrolled releases, corrosion risk, and construction rework. By combining structured methodology, technical rigor, and lifecycle governance, the Drip Funnel Underground Facilities Handbook delivers a professional, auditable, and field-usable reference. It strengthens technical assurance, minimizes risk, and establishes a credible baseline for safe, efficient, and compliant underground facility engineering and construction.

Rp499.000
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Civil

CLEANOUT UNDERGROUND FACILITIES

The Cleanout Underground Facilities Handbook provides a structured engineering reference for the design, specification, construction, inspection, testing, commissioning, and maintenance of cleanout facilities associated with buried piping, drainage, and underground utility systems. It establishes functional requirements for access and cleaning, arrangement selection, hydraulic flow assurance, structural loading, geotechnical and groundwater effects, materials and corrosion protection, three-dimensional layout, and constructability. The handbook integrates procurement and vendor QA, fabrication, logistics, excavation, shoring, and dewatering with installation procedures, inspection and test plan (ITP) requirements, commissioning protocols, maintenance schedules, reliability assurance, and health, safety, and environmental (HSE) controls. Each chapter is designed to connect design assumptions with measurable site parameters, ensuring traceability and compliance with governing standards. Technical content includes calculation notes, decision logic, inspection controls, lifecycle flow diagrams, and maintenance guidance. Field-style photographs, unique three-dimensional engineering schematics, and technical tables are embedded throughout to provide practical context and visual clarity. Worked examples demonstrate hydraulic checks, material suitability, and installation tolerances, reinforcing engineering reasoning without prescribing project-specific values. The handbook emphasizes lifecycle assurance, treating cleanout facilities as integrated engineering and operational assets rather than isolated construction elements. Reliability procedures, calibration requirements, and preventive maintenance frequencies are included to sustain long-term performance. Appendices provide reusable registers, checklists, inspection forms, commissioning records, and maintenance logs, enabling project teams to adapt the framework to specific project requirements. Applications span oil and gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine projects. Sector-specific matrices illustrate adaptability to diverse environments and regulatory frameworks. By combining structured methodology, technical rigor, and lifecycle governance, the Cleanout Underground Facilities Handbook delivers a professional, auditable, and field-usable reference. It strengthens technical assurance, minimizes risk, and establishes a credible baseline for safe, efficient, and compliant cleanout facility engineering and construction.

Rp499.000
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Civil

CATCH BASIN

The Catch Basin Handbook provides a structured technical reference for the selection, design, detailing, procurement, fabrication, installation, inspection, commissioning, operation, and maintenance of catch basins used in stormwater and industrial drainage systems. It addresses both precast and cast-in-place reinforced-concrete structures, together with grates, frames, covers, baskets, pipe penetrations, bedding, backfill, coatings, sealants, and associated drainage interfaces. Hydrologic and hydraulic sections describe the Rational Method, grate inlet behavior, orifice and weir concepts, pipe velocity, Manning flow, sump storage, bypass flow, and practical design checks. Structural sections address loads, wall and slab behavior, reinforcement detailing, durability, traffic-related loading, and constructability. These technical elements ensure that catch basins are designed to withstand operational demands while maintaining long-term reliability. Execution chapters cover survey, excavation, shoring, dewatering, lifting, placement, connections, backfill, pavement reinstatement, inspection hold points, testing, and handover. Each activity is linked to traceable records and quality assurance procedures, ensuring compliance with governing standards and project-specific requirements. Worked examples are included to illustrate calculation logic for hydraulic capacity, reinforcement spacing, sump sizing, and bypass flow. These examples are educational and transparent, reinforcing engineering reasoning without prescribing project-specific values. The final chapters and appendices provide maintenance frequencies, inspection records, inspection and test plans (ITPs), field release forms, commissioning forms, industrial-sector matrices, material and procurement controls, reliability procedures, and reference standards. These resources enable project teams to apply consistent practices, demonstrate compliance, and maintain auditable evidence across oil and gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine facilities. By combining structured methodology, technical rigor, and lifecycle assurance, the Catch Basin Handbook delivers a professional, auditable, and field-usable reference. It strengthens technical assurance, minimizes risk, and establishes a credible baseline for safe, efficient, and compliant catch basin engineering and construction.

Rp499.000
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Civil

STANDARD PILE HEAD

The Standard Pile Head Handbook provides a comprehensive engineering and construction reference for pile heads used in buildings, industrial plants, oil and gas facilities, petrochemical and chemical plants, power generation, water and wastewater infrastructure, mining, manufacturing, offshore structures, and marine/infrastructure works. It establishes a structured methodology that integrates design, fabrication, installation, inspection, and lifecycle management of pile head systems. The handbook addresses load-transfer mechanisms, design criteria, and geotechnical coordination, ensuring that axial, shear, and moment checks are properly reconciled with foundation behavior. Reinforcement anchorage, anchor bolts, steel plates, stiffeners, and concrete confinement are detailed to maintain structural reliability. Corrosion protection, survey tolerances, and three-dimensional modeling are emphasized to ensure durability and traceability. Construction chapters cover fabrication, welding, non-destructive testing (NDT), coating, transportation, pile cut-off, embedment installation, formwork, concrete placement, and heavy-equipment erection. Inspection and test plans (ITPs), nonconformance report (NCR) management, commissioning procedures, and maintenance requirements are embedded to sustain quality and operational readiness. Worked examples and technical notes illustrate calculation logic for anchorage, confinement, and load transfer, while appendices provide reusable forms and templates for design calculations, material specifications, procurement control, inspection records, field releases, commissioning records, maintenance frequencies, and digital asset records. These resources enable project teams to apply consistent practices and maintain auditable evidence across diverse industrial sectors. The handbook emphasizes lifecycle assurance, treating pile head engineering as an integrated activity that connects geotechnical inputs, structural design, fabrication quality, and field execution. It is structured as a professional training and project-control reference, ensuring that values and acceptance limits are always taken from the approved project design basis, geotechnical report, specifications, and governing standards. By combining structured methodology, technical rigor, and lifecycle governance, the Standard Pile Head Handbook delivers a professional, auditable, and field-usable reference. It strengthens technical assurance, minimizes risk, and establishes a credible baseline for safe, efficient, and compliant pile head engineering and construction.

Rp499.000
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Civil

REQUISITION FOR PILE

The Requisition for Pile Handbook Version 1.0 provides a complete engineering framework for preparing and administering pile requisitions across industrial, infrastructure, and marine construction projects. It establishes a structured methodology that integrates technical definition, procurement control, and lifecycle assurance for driven, bored, precast concrete, steel, and specialist pile systems. The handbook consolidates the information required by engineering, procurement, vendors, inspectors, and construction teams to ensure traceability and compliance. Design chapters address geotechnical data interpretation, pile selection, axial and lateral actions, capacity and settlement concepts, durability requirements, and accessory specifications. Material schedules and drawing requirements are linked to quantity take-off procedures, vendor evaluation, and procurement controls. Fabrication and precasting QA/QC processes are emphasized to maintain specification compliance, while logistics and installation equipment guidance ensure constructability. Survey control, load testing, inspection and test plans (ITPs), nonconformance reports (NCRs), HSE, and environmental controls are embedded to sustain reliability and safety. Worked examples illustrate reconciliation and calculation logic, demonstrating how pile requisition data connects design assumptions with procurement and construction records. Editable-style tables and forms provide a practical basis for requisition data sheets, material schedules, inspection records, test reports, and close-out dossiers. These resources enable project teams to apply consistent practices and maintain auditable evidence throughout the project lifecycle. Industrial application notes cover oil and gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine facilities. Sector-specific guidance highlights adaptability to diverse environments and regulatory frameworks. The handbook is structured as a training and project-control reference rather than a design specification. Values, acceptance limits, and final engineering decisions must always be taken from the approved project design basis, geotechnical report, specifications, and applicable standards. By combining structured methodology, technical rigor, and lifecycle assurance, the Requisition for Pile Handbook delivers a professional, auditable, and field-usable reference. It strengthens technical assurance, minimizes risk, and establishes a credible baseline for safe, efficient, and compliant pile requisition practices.

Rp499.000
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Civil

PILE LOAD TEST

The Pile Load Test Handbook presents a complete professional framework for planning, executing, controlling, and reporting pile load tests for deep foundation systems. It covers objectives and applications of pile load testing, governing standards, terminology, roles and responsibilities, test planning, pile and site readiness, static axial compression, static axial tension, lateral load testing, high-strain dynamic testing, rapid load testing, bi-directional testing, reaction system design, load application equipment, instrumentation, calibration, field execution, data analysis, acceptance, HSE control, QA/QC inspection, and final reporting. The handbook is written for practical project use. Technical descriptions are supported by field checklists, inspection tables, sample method statement structures, data recording formats, risk controls, and reporting requirements. The approach emphasizes consistent field execution and helps engineers maintain traceability between measured load–movement behavior, project acceptance criteria, and foundation design assumptions. The primary output of a pile load test is the measured relationship between applied load and pile movement under a defined test method. The significance of the test result depends on correct pile selection, controlled loading, calibrated measurement, stable reaction system, reliable data capture, and competent interpretation. The handbook therefore treats pile load testing as an integrated engineering, quality, and safety activity rather than a simple field loading operation. Worked examples are included to illustrate typical inspection and calculation logic, such as settlement measurement, load–settlement curve interpretation, elastic recovery, and safe working load determination. Appendices provide reusable forms and templates for design calculations, material specifications, procurement control, inspection and test plans (ITPs), inspection records, field releases, commissioning records, maintenance frequencies, and industrial-sector application matrices. These resources enable project teams to apply consistent practices, demonstrate compliance, and maintain auditable records across oil and gas, petrochemical, chemical, power, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine projects. By combining structured methodology, technical rigor, and lifecycle assurance, the Pile Load Test Handbook delivers a professional, auditable, and field-usable reference. It strengthens technical assurance, minimizes risk, and establishes a credible baseline for safe, efficient, and compliant pile load testing practices.

Rp499.000
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Civil

CONCRETE STACK

The Concrete Stack Handbook presents an integrated technical framework for reinforced-concrete industrial stack engineering and construction. It covers functional requirements, geometry, governing actions, dynamic response, annular shell design, foundation behavior, concrete durability, reinforcement detailing, embeds and openings, slipform and jump form execution, liner and breeching interfaces, permanent access, lightning and aviation systems, heavy lifting, quality control, commissioning, inspection, maintenance, and repair. The design discussion emphasizes the importance of wind-induced response, vortex shedding, seismic effects, thermal gradients, operational gas conditions, foundation overturning and settlement, crack control, and durability. These governing actions are linked to structural reliability and long-term performance. Construction chapters connect design requirements to continuous concrete placement, reinforcement continuity, survey control, formwork movement, curing, inspection hold points, and documentation, ensuring that execution remains traceable and auditable. Worked examples are intentionally simplified to maintain transparency of workflow. They demonstrate how to organize calculations rather than prescribe project values. Readers are repeatedly directed to the Engineer of Record and adopted codes for final coefficients, load combinations, strength-reduction factors, fatigue and dynamic criteria, and serviceability limits. This reinforces that the handbook is a reference and training tool, not a substitute for project-specific design. The appendices provide reusable forms and templates for design calculations, material specifications, procurement control, inspection and test plans (ITPs), inspection records, field releases, commissioning records, maintenance frequencies, and industrial-sector application screening. These resources enable project teams to apply consistent practices, demonstrate compliance, and maintain traceability across oil and gas, petrochemical, chemical, power, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine projects. By combining structured methodology, technical rigor, and lifecycle assurance, the Concrete Stack Handbook delivers a professional, auditable, and field-usable reference. It strengthens technical assurance, minimizes risk, and establishes a credible baseline for safe, efficient, and compliant reinforced-concrete stack engineering and construction.

Rp499.000
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Civil

SITE DEVELOPMENT

The Site Development Handbook Version 1.0 provides an integrated technical reference for the planning, design, execution, inspection, and lifecycle management of industrial and infrastructure site development. It establishes a structured methodology covering reconnaissance and surveying, geotechnical inputs, planning, clearing, earthworks, grading, ground improvement, temporary access, surface and underground drainage, pavements, utility corridors, retaining and erosion-control systems, flood resilience, construction plant, material logistics, QA/QC, HSE, commissioning, and maintenance. The handbook emphasizes traceable design inputs, practical construction sequencing, and field verification. Each chapter links engineering assumptions to measurable parameters, ensuring that site development activities remain auditable and aligned with governing standards. Technical content includes base equations, worked examples, material and equipment schedules, inspection and test plan (ITP) logic, field release criteria, commissioning checks, maintenance frequencies, and industrial-sector application guidance. These elements provide project teams with structured tools to manage risk, maintain compliance, and sustain asset reliability. Standardized appendices are included to support consistent application. They provide specifications, inspection forms, commissioning records, maintenance schedules, and calculation sheets. These resources enable adaptation to project-specific requirements while maintaining traceability and quality assurance. The methods are intentionally adaptable. They are suitable for oil and gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore support, infrastructure, and marine developments. Application requires integration with the project-specific design basis, statutory requirements, geotechnical model, flood and hydrology criteria, and owner standards. By combining structured methodology, technical rigor, and lifecycle assurance, the Site Development Handbook delivers a professional, auditable, and field-usable reference. It strengthens technical assurance, minimizes risk, and establishes a credible baseline for safe, efficient, and compliant site development practices. The handbook is designed to support design offices, EPC contractors, inspectors, commissioning organizations, and asset owners, ensuring that site development activities are executed with discipline, traceability, and long-term reliability.

Rp499.000
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Civil

SITE FORMATION

The Site Formation Works Handbook Version 1.0 provides a detailed technical framework for planning, designing, executing, inspecting, and handing over site formation works. It establishes a structured methodology that covers earthwork balance, survey control, ground investigation, material suitability, excavation, embankment, compaction, subgrade preparation, soil improvement, drainage, equipment productivity, quality records, HSE controls, and post-construction monitoring. The document emphasizes traceability and field control. Each chapter links design assumptions to measurable site parameters, identifies required equipment and materials, defines hold and witness points, provides example acceptance logic, and integrates maintenance or reliability considerations. Technical flow diagrams and three-dimensional schematics are included to support written procedures, ensuring that design intent is consistently translated into field execution. Worked examples illustrate typical calculations such as earthwork volume, moisture adjustment, compaction ratio, equipment productivity, drainage flow, and simple fleet balancing. These examples are educational tools that demonstrate engineering reasoning but do not replace project-specific design calculations or acceptance criteria. Quality and turnover content is reinforced through inspection and test plans (ITPs), inspection forms, field-release records, and commissioning/handover templates. These resources provide auditable evidence of compliance and readiness, ensuring that site formation works meet contractual and regulatory requirements. The appendices supply reusable registers, checklists, inspection forms, and commissioning records, enabling project teams to adapt the framework to specific project requirements. Maintenance schedules and reliability indicators are embedded to sustain long-term performance and asset integrity. Designed as a practical and professional reference, the handbook supports engineering and construction teams working on both greenfield and brownfield projects. It emphasizes that formation level, stability, drainage, and construction quality are critical to the success of subsequent facilities. By combining structured methodology, technical rigor, and lifecycle assurance, the Site Formation Works Handbook delivers a professional, auditable, and field-usable reference. It strengthens technical assurance, minimizes risk, and establishes a credible baseline for safe, efficient, and compliant site formation practices across industrial and infrastructure projects.

Rp499.000
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Civil

SOIL IMPROVEMENT

The Soil Improvement Handbook Version 1.0 provides an integrated engineering reference for the selection, design, construction, inspection, and lifecycle management of ground improvement systems. It establishes a structured methodology beginning with site investigation and soil characterization, progressing through improvement mechanisms such as preloading, vertical drains, dynamic and vibro compaction, stone columns, deep soil mixing, jet grouting, chemical stabilization, and geosynthetics. Design chapters address settlement analysis, bearing capacity, stability checks, drainage performance, composite-ground behavior, numerical and analytical verification, sensitivity studies, trial sections, and observational control. These elements ensure that ground improvement solutions are not only technically sound but also adaptable to site-specific conditions. Construction chapters describe equipment utilization, material requirements, method statements, working-platform considerations, installation records, production controls, and contingency actions. Practical guidance is provided to maintain safety, efficiency, and traceability during execution. Quality and turnover content integrates inspection and test plans (ITPs), calibration procedures, material traceability, verification testing, field release protocols, monitoring systems, commissioning records, and example forms. Maintenance frequencies and reliability indicators are embedded to sustain long-term performance. Industrial application guidance is included for oil and gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, marine, and infrastructure projects. Sector-specific matrices illustrate how soil improvement techniques can be adapted to diverse environments and regulatory frameworks. The handbook emphasizes that values, examples, and formulae are illustrative and must be confirmed against the project geotechnical model, approved design basis, and governing requirements. It is structured as a training and field reference rather than a project design specification, ensuring usability for engineers, contractors, inspectors, and asset owners. By combining structured methodology, technical rigor, and lifecycle assurance, the Soil Improvement Handbook delivers a professional, auditable, and field-usable reference. It strengthens technical assurance, minimizes risk, and establishes a credible baseline for safe, efficient, and compliant ground improvement practices across multidisciplinary civil engineering projects.

Rp499.000
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Civil

OCEONOGRAPHIC SURVEY

The Oceanographic Survey Handbook Version 1.0 presents an integrated framework for oceanographic and hydrographic surveying in engineering projects. It covers survey scoping and planning, reference frames, vessel integration, acoustic bathymetry and imagery, LiDAR applications, sound-speed profiling, tides and vertical datums, current and wave measurements, shallow geophysics, seabed sampling, autonomous and remotely operated systems, data acquisition architecture, processing, uncertainty management, quality control, and final deliverables. The document extends beyond field methods into the equipment lifecycle, addressing design, fabrication, material specification, procurement, inspection, factory acceptance, transport, installation, commissioning, preventive maintenance, and reliability. This ensures that survey systems are not only technically capable but also sustainable and auditable throughout their operational life. Technical guidance includes worked calculation notes, reusable checklists, inspection and test plan (ITP) concepts, inspection and field-release forms, commissioning records, maintenance frequencies, industry application matrices, and deliverable structures. These resources provide traceability and consistency, enabling project teams to apply standardized practices across diverse industrial environments. The framework aligns with contemporary hydrographic practice, incorporating International Hydrographic Organization (IHO) S‑44 concepts for survey order, coverage, and uncertainty. At the same time, it recognizes that project or authority requirements may be more stringent, ensuring adaptability to regulatory and contractual contexts. Applications span oil and gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine projects. Sector-specific examples highlight unique challenges such as deepwater bathymetry, coastal mapping, subsea construction support, and environmental monitoring. By combining structured methodology, technical rigor, and lifecycle assurance, the Oceanographic Survey Handbook delivers a professional, auditable, and field-usable reference. It strengthens technical assurance, minimizes risk, and establishes a credible baseline for safe, efficient, and compliant oceanographic surveying practices. The handbook is designed to support surveyors, engineers, contractors, inspectors, commissioning organizations, and asset owners, ensuring that oceanographic data remains reliable and fit for purpose throughout the project lifecycle.

Rp499.000
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Civil

SURVEYING AND MAPPING

The Surveying and Mapping Handbook presents a comprehensive framework for planning, executing, checking, and documenting engineering surveys across multidisciplinary projects. The methods are applicable to both greenfield and brownfield developments and support oil and gas, petrochemical, chemical, power plant, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine sectors. Technical coverage addresses coordinate reference systems, grid-to-ground reduction, control adjustment, differential leveling, total station computation, GNSS quality assurance, terrain modeling, horizontal and vertical alignment, construction setting-out, volume measurement, hydrographic corrections, photogrammetric ground sampling distance, laser-scanner registration, spatial data integration, deformation statistics, and measurement uncertainty. Each topic is presented with practical calculation notes, worked examples, and explicit reminders that final values must be verified against governing standards and project-specific procedures. The handbook emphasizes that survey deliverables must be accurate, traceable, constructible, and suitable for design, procurement, fabrication, delivery, installation, construction, commissioning, operation, and maintenance. Survey data is treated as a critical input to engineering assurance, requiring validation, controlled change, and lifecycle reconciliation. Supporting resources include reusable registers, checklists, inspection and test plan (ITP) forms, field-release forms, inspection records, maintenance schedules, and image-source notes. Unique three-dimensional schematics, technical flow diagrams, and representative field photographs are integrated throughout to connect theoretical concepts with real-world execution. Applications span diverse industrial sectors, with examples demonstrating adaptability to offshore platforms, marine facilities, heavy civil works, and industrial plants. The handbook stresses that surveying and mapping are not isolated technical activities but integral components of governance, risk management, and lifecycle assurance. By combining structured methodology, technical rigor, and lifecycle integration, the Surveying and Mapping Handbook delivers a professional, auditable, and field-usable reference. It strengthens technical assurance, minimizes risk, and establishes a credible baseline for safe, efficient, and compliant surveying practices across industrial and infrastructure projects.

Rp499.000
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Civil

INSPECTION PROCEDURE FOR CIVIL

The Inspection Procedure for Civil Handbook provides an integrated reference for planning and performing civil engineering inspections from pre-construction through final handover and maintenance. Designed for EPC, industrial, and infrastructure projects, the handbook can be adapted to client-specific quality systems, ensuring flexibility while maintaining rigorous assurance standards. Technical coverage spans inspection management, inspection and test plan (ITP) development, hold and witness points, surveying, earthworks, geotechnical verification, foundations, reinforcement, formwork, concrete, structural steel, masonry, waterproofing, finishing, roads, drainage, and utilities. It also includes non-destructive testing (NDT), laboratory and field testing, calibration, material procurement and traceability, construction logistics, nonconformance report (NCR) control, field release, commissioning, and reliability assurance. Worked examples demonstrate typical inspection calculations such as compaction ratio, compressive strength, rebar unit mass, survey closure, bearing pressure, material quantity, and completion metrics. These examples are intended as educational aids to illustrate inspection reasoning and methodology but do not supersede project-specific design calculations or acceptance criteria. The handbook emphasizes traceability and lifecycle assurance. Inspection activities are linked to procurement records, construction deviations are managed through controlled queries or NCRs, and commissioning evidence is reconciled before handover. Maintenance frequencies and reliability indicators are integrated to ensure that civil engineering outputs remain auditable and sustainable throughout the lifecycle. Appendices provide master checklists, ITP and inspection forms, material receiving records, NCR and corrective-action forms, field release and handover templates, calibration and maintenance logs, and visual reference plates. These resources enable project teams to apply consistent practices, demonstrate compliance, and maintain auditable records across oil and gas, petrochemical, chemical, power, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine projects. By combining structured methodology, technical rigor, and lifecycle governance, the Inspection Procedure for Civil Handbook delivers a professional, auditable, and field-usable reference. It strengthens technical assurance, minimizes risk, and establishes a credible baseline for safe, efficient, and compliant civil engineering inspection practices.

Rp499.000
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Civil

FOUNDATION EARTHWORK

The Foundation Earthwork Handbook Version 1.0 consolidates engineering and construction practices for the full lifecycle of foundation earthwork. It establishes a structured framework beginning with site investigation and geotechnical interpretation, progressing through planning, mobilization, excavation, shoring, dewatering, subgrade preparation, foundation selection, concrete placement, reinforcement, waterproofing, drainage, backfilling, inspection, health, safety and environment (HSE), equipment utilization, calculations, testing, materials, procurement, reporting, commissioning, maintenance, sustainability, and project close-out. Each chapter is designed to connect engineering development with field execution. Site investigation and geotechnical interpretation provide the basis for safe and reliable foundation selection. Planning and mobilization ensure readiness of equipment, materials, and workforce. Excavation, shoring, and dewatering are addressed with practical methods to maintain stability and safety. Subgrade preparation and foundation installation are supported by technical notes, calculation examples, and inspection checklists. Waterproofing, drainage, and backfilling are integrated to protect long-term performance. Technical guidance is enriched with field-style construction visuals, three-dimensional engineering schematics, process flow diagrams, technical tables, inspection checklists, material lists, maintenance frequencies, worked calculation examples, sector application matrices, and sample forms. These resources provide traceability, auditable evidence, and practical tools for engineers, contractors, inspectors, and asset owners. The handbook emphasizes lifecycle assurance. Inspection and test plans (ITPs), field release criteria, commissioning forms, and maintenance records are embedded to ensure that foundation earthwork outputs remain reliable and sustainable. Sustainability practices, including material optimization, water management, and reduced environmental impact, are highlighted to align with modern industrial and infrastructure standards. Appendices provide ready-to-adapt project controls, including registers, checklists, forms, and sector-specific matrices. Each chapter begins on a new page for clarity, while appendices serve as reusable templates for consistent application. By combining structured methodology, technical rigor, and lifecycle governance, the Foundation Earthwork Handbook delivers a professional, auditable, and field-usable reference. It strengthens technical assurance, minimizes risk, and establishes a credible baseline for safe, efficient, and compliant foundation earthwork across oil and gas, petrochemical, chemical, power, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine projects.

Rp499.000
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Civil

CIVIL ENGINEERING EXECUTION FLOW

The Civil Engineering Execution Flow Handbook Version 1.0 provides a complete framework for managing civil engineering execution from project initiation through operation and maintenance. It establishes a structured pathway that integrates survey and site investigation, design development, material specification, procurement control, construction planning, earthworks, foundations, concrete, structural works, roads, drainage, underground utilities, equipment interfaces, quality control, testing, handover, maintenance, and sector-specific applications. The methodology emphasizes lifecycle assurance. Survey and site data are validated before design development, while material specifications and procurement controls ensure traceability. Construction planning integrates sequencing, equipment considerations, and risk-based scheduling. Execution phases cover earthworks, foundations, reinforced concrete, structural steel, drainage, and utilities, with inspection and test planning (ITP) embedded to maintain compliance. Field release procedures, commissioning forms, and handover records provide auditable evidence of readiness, while maintenance frequencies and reliability concepts sustain asset integrity throughout operation. Technical content includes calculation notes and worked examples for bearing capacity, settlement, drainage flow, pavement design, structural actions, and reliability indicators. Formulae are presented as practical checks, with explicit reminders to verify against governing project criteria and approved standards. Material and procurement controls are linked to construction records, ensuring that design intent is carried through to execution. Execution flow diagrams illustrate the transition from design to construction, commissioning, and operation, reinforcing the importance of traceability and controlled adaptation. Applications span oil and gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine projects. Sector-specific examples highlight unique execution challenges and adaptation strategies. By combining governance, technical rigor, and lifecycle integration, the Civil Engineering Execution Flow Handbook delivers a professional, auditable, and field-usable reference. It strengthens technical assurance, minimizes risk, and establishes a credible baseline for safe, efficient, and compliant civil engineering execution. The handbook supports design offices, EPC contractors, inspectors, commissioning organizations, and asset owners, ensuring that civil engineering activities are executed with discipline, traceability, and long-term reliability.

Rp499.000
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Civil

CIVIL DRAFTING PRACTICE

The Civil Drafting Practice Handbook Version 1.0 provides an integrated reference for planning, producing, checking, and maintaining civil engineering drawings across multidisciplinary industrial and infrastructure projects. It covers traditional 2D drafting, 3D modeling, BIM coordination, survey control, earthworks, roads, drainage, reinforced concrete, structural steel interfaces, underground utilities, equipment foundations, buildings, retaining systems, marine works, as-built documentation, and field construction support. Technical sections include worked examples for scale control, survey closure, cut/fill volume, roadway grade, stormwater flow, bearing pressure, reinforcement spacing, anchor-bolt offsets, trench volume, earth pressure, buoyancy, coordinate transformation, clash clearance, drawing completeness, temporary bearing pressure, and reliability indicators. Each worked example is framed as a drafting-support calculation, reinforcing engineering reasoning without replacing discipline-specific design calculations. The handbook emphasizes drafting as a critical assurance activity. Drawings are not only visual outputs but also auditable records that connect design intent with construction execution. Quality and lifecycle sections introduce material and procurement control, inspection and test plan (ITP) logic, field release procedures, commissioning records, handover documentation, maintenance frequencies, inspection forms, asset registers, and sector application matrices. These elements ensure that drafting outputs remain traceable, reliable, and aligned with lifecycle governance. Unique three-dimensional engineering schematics and representative field photographs are included throughout to connect design concepts with physical construction. These visual references enhance understanding and provide practical context for engineers, inspectors, contractors, and asset owners. Applications are discussed across oil and gas, petrochemical, chemical, power plant, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine facilities. Sector-specific examples demonstrate adaptability of drafting practices to diverse environments and regulatory frameworks. By combining structured methodology, technical rigor, and lifecycle assurance, the Civil Drafting Practice Handbook delivers a professional, auditable, and field-usable reference. It strengthens technical assurance, minimizes risk, and establishes a credible baseline for safe, efficient, and compliant drafting practices across multidisciplinary civil engineering projects.

Rp499.000
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Civil

CIVIL DOCUMENT LIST

The Civil Document List Handbook Version 1.0 presents a structured framework for managing multidisciplinary engineering and construction documentation. It defines the purpose, minimum content, interfaces, and control logic for civil design criteria, survey and geotechnical records, earthworks, roads, drainage, concrete and steel structures, underground utilities, supports, containment, water and wastewater facilities, marine works, temporary works, quality records, procurement documentation, and final handover information. Each technical chapter combines a document-control perspective with engineering content. The methodology ensures that civil documentation is not only complete but also traceable, auditable, and aligned with project governance requirements. Representative calculation notes and equations are provided to illustrate engineering reasoning, while worked examples demonstrate application paths without replacing project-specific analysis. Material and procurement controls are integrated to ensure specification compliance and traceability, while inspection and test requirements establish hold points and field records. Maintenance frequencies and industrial-sector applications link design choices to lifecycle assurance. Unique three-dimensional engineering schematics, technical flow diagrams, and actual field-reference photographs are included throughout the handbook to connect design concepts with physical construction. These visual references enhance understanding and provide practical context for engineers, inspectors, and asset owners. The appendices provide reusable tools such as registers, checklists, inspection forms, commissioning records, maintenance tables, and calculation worksheets. These resources enable project teams to apply consistent practices, demonstrate compliance, and maintain auditable records across oil and gas, petrochemical, chemical, power, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine projects. By combining document-control logic with technical rigor, the Civil Document List Handbook delivers a professional, auditable, and field-usable reference. It strengthens technical assurance, minimizes risk, and establishes a credible baseline for safe, efficient, and compliant civil engineering documentation. The structure supports design offices, EPC contractors, inspectors, commissioning organizations, and asset owners, ensuring that civil documentation remains reliable and relevant throughout the project lifecycle.

Rp499.000
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Civil

CIVIL ENGINEERING MANUAL

The Integrated Civil Engineering Manual Handbook presents a comprehensive methodology for managing civil engineering activities across industrial and infrastructure projects. It establishes governance principles, surveying protocols, geotechnical investigation methods, and earthworks planning, while also addressing ground improvement, foundations, reinforced concrete, buildings, roads, drainage, underground utilities, water and wastewater facilities, bridges, marine works, and industrial-plant interfaces. Construction logistics, material control, inspection, commissioning, and asset integrity are integrated to ensure lifecycle assurance. Chapters are structured to support both engineering development and field execution. Each section connects design theory with practical implementation, ensuring that engineering outputs remain auditable, traceable, and aligned with governing standards. The framework emphasizes risk-based design, constructability, and operational readiness, enabling project teams to balance safety, efficiency, and sustainability. Technical content includes design inputs, theoretical foundations, fundamental equations, and illustrative worked examples. Material and procurement requirements are clearly defined, while construction equipment sequencing and Inspection and Test Plan (ITP) logic provide structured pathways for execution. Field release criteria, maintenance frequencies, and industrial-sector applications ensure that civil engineering practices remain consistent across oil and gas, petrochemical, chemical, power, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine projects. Unique three-dimensional engineering schematics and representative field photographs are included throughout the handbook to connect design concepts with physical construction. These visual references enhance understanding and provide practical context for engineers, inspectors, and asset owners. By combining governance, technical rigor, and lifecycle assurance, the Integrated Civil Engineering Framework Handbook delivers a professional, auditable, and field-usable reference. It strengthens technical assurance, minimizes risk, and establishes a credible baseline for safe, efficient, and compliant civil engineering practice. The handbook is designed to support design offices, EPC contractors, inspectors, commissioning organizations, and asset owners, ensuring that civil engineering activities are executed with discipline, traceability, and long-term reliability.

Rp499.000
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Civil

DESIGN INFORMATION CIVIL WITH OTHER DISCIPLINES

The Civil Engineering Design Information Control Handbook presents a practical framework for preparing, receiving, verifying, coordinating, and releasing civil engineering design information that originates from or affects other disciplines. It is structured into twenty-seven technical chapters and seven appendices, each expanded into theory, criteria, interface data, calculations, procurement, construction, inspection, commissioning, maintenance, and sector applications. Special emphasis is placed on traceability. All design data must have a source, revision, status, owner, and maturity level. The civil engineering team converts these inputs into geometry, loads, materials, drawings, models, calculations, specifications, and records. Cross-discipline reviews ensure that changes are assessed before construction or operation, preventing uncontrolled deviations and ensuring lifecycle integrity. The handbook also provides worked engineering relationships, material-control examples, inspection and test plan (ITP) concepts, field-release logic, punch-list and turnover controls, maintenance frequency guidance, and industrial-sector matrices. Multiple three-dimensional and actual field visual references are included to support practical understanding and application. These resources enable project teams to apply consistent practices, demonstrate compliance, and maintain auditable records across diverse industrial environments. Technical content emphasizes integration of design quality with procurement traceability, inspection readiness, commissioning verification, and maintenance assurance. Worked examples illustrate calculation paths and engineering reasoning, while appendices supply reusable tools such as registers, checklists, forms, and worksheets. The document is designed as a single editable Word master, suitable for training, project reference, and controlled adaptation, ensuring flexibility while maintaining governance. By combining structured methodology, technical rigor, and lifecycle assurance, TEP-A310-03 delivers a professional, auditable, and field-usable reference. It strengthens technical assurance, minimizes risk, and establishes a credible baseline for safe, efficient, and compliant civil engineering design information management across oil and gas, petrochemical, chemical, power, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine projects.

Rp499.000
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Civil

ENGINEERING ACTIVITIES CIVIL

The Engineering Activities Civil Handbook serves as a comprehensive civil engineering reference for industrial, infrastructure, and marine projects. It establishes a structured framework that spans planning, lifecycle control, surveying, geotechnical investigation, earthworks, temporary works, concrete and reinforced concrete, foundations, steel interfaces, roads, drainage, underground utilities, retaining systems, buildings, equipment foundations, containment, marine works, bridges, water-retaining structures, construction equipment, QA/QC, HSE, commissioning, and maintenance. Technical content is organized around practical engineering decisions. Calculation notes address bearing capacity, earth pressure, runoff, pavement concepts, structural actions, foundation dynamics, hydrostatic loads, completion metrics, and reliability concepts. Worked examples illustrate calculation paths, reinforcing engineering reasoning without replacing project-specific analysis under governing codes. Material tables and procurement notes highlight specification and traceability requirements, while inspection tables identify hold points and field records. Maintenance tables link design choices to asset life, ensuring that civil engineering outputs remain auditable and sustainable throughout the lifecycle. The handbook emphasizes integration of design, construction, and operational assurance. It stresses that civil engineering activities are not limited to technical drawings or calculations but require governance, risk management, and lifecycle controls. QA/QC and HSE principles are embedded to ensure safety, compliance, and reliability. Commissioning and maintenance guidance connects design intent to operational readiness, while sector-specific applications demonstrate adaptability across oil and gas, petrochemical, chemical, power, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine projects. Appendices provide reusable resources including formula references, material specifications, document registers, ITPs, inspection records, field release forms, commissioning certificates, maintenance frequencies, industrial-sector matrices, heavy-equipment controls, checklists, and image/source credits. These tools enable project teams to apply consistent practices and demonstrate compliance through auditable evidence. By combining structured methodology, technical rigor, and lifecycle assurance, the Engineering Activities Civil Handbook delivers a professional, auditable, and field-usable reference. It strengthens technical assurance, minimizes risk, and establishes a credible baseline for safe, efficient, and compliant civil engineering activities across diverse industrial environments.

Rp499.000
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Civil

CIVIL DESIGN CONTROL PROCEDURE

The Civil Design Control Procedure Handbook Version 1.0 defines a comprehensive civil engineering design-control system tailored for industrial and infrastructure projects. It establishes governance principles, design inputs, codes and standards, survey and geotechnical control, load management, and lifecycle integrity. The scope extends to earthworks, drainage, foundations, concrete, steel structures, equipment foundations, roads, underground systems, retaining structures, industrial supports, marine interfaces, materials, procurement, BIM/CAD integration, construction inspection, commissioning, and long-term maintenance. The central control model applies staged maturity and verification. Inputs are registered and validated, while assumptions remain visible until formally confirmed. Calculations and models undergo independent checks, interdisciplinary interfaces are resolved, and deliverables are issued only after readiness gates are achieved. Construction deviations are managed through controlled technical queries or field-change processes, and as-built records are reconciled before handover. This structured approach integrates design quality with procurement traceability, inspection and test plans (ITPs), commissioning forms, maintenance frequencies, and condition records, ensuring that civil design outputs remain auditable and reliable throughout the lifecycle. Technical content includes worked examples and basic equations for bearing pressure, settlement, drainage, earth pressure, structural response, and dynamic foundations. These examples illustrate engineering reasoning but are not substitutes for project-specific analysis under governing codes. The handbook emphasizes that civil design control is not limited to calculations but requires integration of quality assurance, risk management, and lifecycle governance. Appendices provide practical registers, checklists, review forms, ITP and inspection templates, field-change forms, handover records, and an industrial-sector application matrix. These resources enable project teams to apply consistent practices, demonstrate compliance, and maintain traceability across oil and gas, petrochemical, chemical, power, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine projects. By combining structured methodology, technical rigor, and lifecycle assurance, the Civil Design Control Procedure Handbook delivers a professional, auditable, and field-usable reference. It strengthens technical assurance, minimizes risk, and establishes a credible baseline for safe, efficient, and compliant civil engineering design control.

Rp499.000
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Process

ENGINEERING MODEL REVIEW

The Multidisciplinary Engineering Model Review Handbook Version 1.0 presents an integrated methodology for reviewing engineering models across industrial and infrastructure projects. It establishes governance principles, common data environment controls, coordinate systems, model maturity criteria, authoring quality standards, and interoperability requirements. The scope extends to geometry, equipment, piping, stress interfaces, civil and structural works, electrical systems, instrumentation, safety, fire protection, human factors, clash management, constructability, lifting studies, vendor packages, materials, 4D sequencing, commissioning, QA/QC, metrics, change control, digital handover, and asset information management. Technical content provides practical screening tools and calculation notes. These include coordinate and tolerance calculations, completeness and readiness indices, clash-density and risk scoring, maintenance-envelope checks, piping slope verification, thermal growth analysis, tray fill assessment, analyzer sample delay evaluation, travel distance checks, lifting utilization, material take-off (MTO) variance, 4D linkage, system completion metrics, first-pass yield, action burn-down tracking, as-built verification, and asset-data completeness. Equations are presented as preliminary tools, with explicit notes requiring confirmation against governing standards, project procedures, and approved calculation methods. The appendices supply structured resources such as review plans, meeting records, discipline-specific checklists, clash and issue forms, model data requirements, material and procurement controls, inspection and test plan (ITP) forms, field release and commissioning records, maintenance frequency tables, sector matrices, calculation worksheets, references, glossary, and revision control registers. These appendices enable consistent application and provide auditable evidence of compliance. The handbook emphasizes that model review is not limited to geometry or clash detection. Effective assurance requires validated inputs, robust architecture, independence of protective layers, impairment management, controlled change, and objective evidence that assumed performance is sustained throughout the lifecycle. By integrating technical rigor, governance, and lifecycle assurance, the Multidisciplinary Engineering Model Review Handbook delivers a professional, auditable, and field-usable reference. It strengthens technical assurance, minimizes risk, and establishes a credible baseline for safe, efficient, and compliant project delivery across oil and gas, petrochemical, chemical, power, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine sectors.

Rp499.000
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Process

PLANT LAYOUT FOR BASIC DESIGN

The Plant Layout Handbook Version 1.0 presents a complete and integrated methodology for developing plant layouts, beginning with site data and process inputs and extending through plot plan issue, 3D model coordination, construction planning, commissioning, and lifecycle management. It combines qualitative design principles with calculation notes, worked examples, engineering tables, inspection records, and controlled review forms to ensure traceability and professional assurance. The methodology begins with the design basis, site constraints, standards register, and development workflow. It then addresses zoning strategies, equipment relationships, and risk-based spacing to ensure safety and operability. Infrastructure elements such as roads, pipe racks, buildings, fire protection systems, hazardous area classification, drainage, electrical systems, and instrumentation are integrated into the layout. Considerations for equipment maintenance envelopes, tank farms, fired equipment, utilities, modularization, structures, civil works, logistics, marine interfaces, and 3D model management are systematically incorporated to provide a holistic design framework. Final chapters connect basic design outputs to fabrication, transport, installation, commissioning, operational readiness, maintenance, and sector-specific assurance. This lifecycle approach ensures that layouts are not only constructible but also maintainable and adaptable to future modifications. The appendices provide ready-to-use resources, including plant layout review checklists, equipment spacing matrices, procurement control registers, inspection and test plan (ITP) forms, inspection records, field release documents, commissioning certificates, maintenance frequency tables, clash management tools, and calculation verification sheets. These appendices enable project teams to apply consistent practices and demonstrate compliance through auditable evidence. By combining structured methodology, technical rigor, and lifecycle governance, the Plant Layout Handbook delivers a professional, auditable, and field-usable reference. It strengthens technical assurance, minimizes risk, and establishes a credible baseline for safe, efficient, and compliant plant layout development across oil and gas, petrochemical, chemical, power, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine projects.

Rp499.000
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Process

NOISE CONTROL

The Industrial Noise Control Handbook Version 1.0 presents an integrated method for controlling workplace and community noise across diverse industrial sectors. It begins with fundamentals of sound, legal frameworks, and applicable standards, then advances into measurement strategies, dosimetry, noise mapping, and acoustic calculations. The methodology extends to equipment specifications, rotating machinery, fans and ducts, valves and blowdown, piping systems, enclosures, barriers, silencers, room acoustics, vibration isolation, hearing conservation, environmental prediction, procurement, inspection, construction, commissioning, and maintenance. Sector-specific applications ensure adaptability across oil and gas, petrochemical, chemical, power, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine projects. Technical content is comprehensive. It includes decibel arithmetic, exposure normalization, distance attenuation, source allocation, fan and blade-pass relationships, enclosure leakage, barrier geometry, silencer insertion loss and pressure drop, Sabine reverberation time, isolation transmissibility, outdoor propagation structures, and acceptance decision rules. Equations are presented as screening tools, with explicit notes requiring verification against governing standards and project-specific data. This ensures that calculations remain both practical and compliant. The appendices provide ready-to-adapt survey sheets, calibration records, design and installation checklists, material lists, maintenance frequencies, inspection records, commissioning forms, calculation worksheets, reference standards, and a subject index. These resources enable practitioners to apply the handbook directly in field studies, design reviews, and operational assurance programs. A central emphasis is that noise control is not limited to technical drawings or acoustic models. Effective risk reduction requires validated data, robust equipment specifications, independence of barriers, fail-safe design, impairment management, controlled change, and objective evidence that performance is sustained throughout the operating life. The handbook integrates occupational health principles with environmental stewardship, ensuring that both worker safety and community well-being are addressed. By combining structured methodology, technical rigor, and lifecycle assurance, the Industrial Noise Control Handbook delivers a professional, auditable, and field-usable reference. It strengthens compliance, minimizes exposure risk, and establishes a credible baseline for sustainable noise management across industrial environments.

Rp499.000
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Process

PROCESS SAFEGUARDING FLOW SCHEME

The Process Safeguarding Flow Scheme Handbook Version 1.0 defines a structured engineering method for preparing safeguarding flow schemes that link hazardous deviations to detection, decision logic, final protective action, disposal or mitigation, test requirements, and lifecycle records. It integrates multiple risk-analysis and assurance tools, including HAZID, HAZOP, LOPA, SIL allocation, setpoint management, cause-and-effect charts, pressure relief systems, emergency shutdown, depressuring, fire and gas detection, equipment safeguarding, and utility dependencies. The handbook is organized into eighteen technical chapters that provide design theory, technical flow diagrams, representative three-dimensional arrangements, actual industrial photographs, calculation notes, worked examples, design criteria, lifecycle controls, inspection checklists, and maintenance frequencies. Fifteen appendices complement the chapters with reusable calculation sheets, registers, matrices, material and procurement controls, inspection and test plan (ITP) forms, commissioning records, inspection certificates, sector matrices, abbreviations, references, and image credits. A central emphasis is that a safeguarding drawing is only one element of assurance. Effective risk reduction requires accurate process data, validated scenarios, independence of protective layers, suitable architecture, fail-safe final elements, robust testing, impairment management, controlled change, and objective evidence that assumed performance is sustained throughout the operating life. The handbook stresses inherently safer design, barrier independence, and lifecycle governance to ensure that safeguarding schemes remain credible and auditable. Applications span oil and gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine facilities. Each sector analysis highlights unique safeguarding challenges, risk factors, and adaptation strategies. By combining structured methodology, technical rigor, and lifecycle integration, the Process Safeguarding Flow Scheme Handbook delivers a professional, traceable, and field-usable reference. It strengthens technical assurance, minimizes operational risk, and establishes a credible baseline for safe, efficient, and compliant safeguarding implementation across diverse industrial environments.

Rp499.000
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Process

HAZARD IDENTIFICATION STUDY (HAZID)

The Hazard Identification (HAZID) Handbook Version 1.0 establishes a complete professional method for planning, facilitating, documenting, and closing hazard identification studies across industrial facilities. It defines the purpose and boundaries of HAZID, explains lifecycle timing, governance, and competency requirements, sets information-readiness expectations, and presents a comprehensive hazard taxonomy. This taxonomy spans process, mechanical, layout, human factors, fire, explosion, toxic release, electrical, control, cyber-physical, construction, marine, environmental, occupational-health, and natural hazards, ensuring broad applicability across sectors. The methodology applies a structured cause–event–consequence framework. Existing safeguards are recorded and assessed, qualitative risk is assigned using approved likelihood and severity descriptors, and specific actions are generated where risk reduction or uncertainty resolution is required. The handbook emphasizes inherently safer design principles, independence of barriers, ALARP reasoning, hazard-register control, and objective close-out evidence to ensure traceability and accountability. Technical content enriches the framework with screening equations, worked examples, lifecycle requirement traceability, and integration with material and procurement controls. Supporting tools include inspection and test plan (ITP) forms, commissioning and field-release records, preventive maintenance frequencies, reliability indicators, and sector-specific application matrices. These resources enable consistent application across Oil & Gas, Petrochemical, Chemical, Power Plant, Water & Wastewater, Mining, Manufacturing, Offshore, and Infrastructure/Marine industries. By combining governance, structured methodology, assurance practices, and lifecycle integration, the handbook delivers a professional, auditable, and field-usable reference. It strengthens technical assurance, minimizes operational risk, and establishes a credible baseline for safe, efficient, and compliant hazard identification. The outcome is a disciplined process that not only identifies hazards but also embeds risk management into design, construction, commissioning, and operations, ensuring that facilities achieve sustainable safety and reliability throughout their lifecycle

Rp499.000
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Process

HAZARD AND OPERABILITY STUDY (HAZOP)

The HAZOP Handbook Version 1.0 provides comprehensive guidance for planning, facilitating, documenting, auditing, and closing out Hazard and Operability Studies (HAZOP) across process facilities and supporting systems. Structured into twenty-six technical chapters and twelve appendices, the handbook serves as both a methodological reference and a practical toolkit, offering working forms for direct application in workshops and assurance activities. The primary scope is divided into five domains. Governance covers standards, lifecycle integration, scope definition, team competence, readiness, and document control. Core method details the structured approach of node identification, design intent, guideword application, deviation analysis, cause-consequence mapping, safeguard evaluation, risk ranking, and recommendation formulation. Special applications extend the methodology to continuous and batch processes, control and safety instrumented systems (SIS), utilities and offsites, human factors, commissioning, and management of change (MOC). Assurance emphasizes quality assurance, audit practices, KPI tracking, material and procurement integration, inspection and test plans (ITPs), maintenance, and sector-specific applications. Implementation provides worked examples, action closeout procedures, standardized forms, roadmap guidance, and maturity assessment tools. Expected outcomes are clearly defined. Workshops produce worksheets that are logical, specific, traceable, and reviewable. Safeguards are assessed against function, independence, response time, reliability, and maintainability. Recommendations are assigned to owners with due dates, acceptance criteria, and closure evidence. Findings are translated into design modifications, inspection and test requirements, commissioning verification, and maintenance actions. Revalidation cycles and learning loops ensure the study remains relevant throughout the facility lifecycle. By combining structured methodology, assurance practices, and lifecycle integration, the HAZOP Handbook Version 1.0 delivers a professional, auditable, and field-usable reference. It strengthens technical assurance, minimizes operational risk, and establishes a credible baseline for safe, efficient, and compliant hazard and operability management across diverse industrial sectors.

Rp499.000
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Process

PRESSURE RELIEF DEVICES

The Pressure Relief Devices Engineering Handbook presents a structured approach to the engineering and lifecycle management of protective systems designed to safeguard process equipment against overpressure and vacuum conditions. It integrates technical theory, design practices, and operational requirements to ensure that relief devices function reliably across diverse industrial sectors, including oil and gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine facilities. The handbook covers conventional and balanced spring-loaded valves, pilot-operated valves, rupture disks, pressure/vacuum vents, and associated piping and disposal systems. Each device type is analyzed in terms of operating principles, performance characteristics, sizing methodologies, installation requirements, and maintenance strategies. Emphasis is placed on proper selection to match process conditions, ensuring compliance with codes and standards while minimizing risk of failure. Lifecycle management is addressed through procurement controls, inspection and test planning, commissioning procedures, and preventive maintenance programs. Reliability indicators, diagnostic techniques, and failure analysis methods are included to support continuous improvement. The text also highlights integration with flare systems, blowdown networks, and disposal pathways, ensuring safe routing of relieved fluids and adherence to environmental regulations. Technical notes provide screening-level equations for relief-load estimation, valve sizing, backpressure evaluation, rupture disk coordination, venting adequacy, and disposal capacity. These equations are intended for preliminary design and must be validated against project-specific data and approved software models. Appendices supply calculation templates, inspection and test plan records, commissioning certificates, maintenance logs, and sector-specific application matrices. Quick-reference checklists and compliance tables are included to support field engineers and auditors. The overall objective is to deliver a professional, auditable, and field-usable reference that strengthens technical assurance, supports consistent engineering decisions, and ensures dependable long-term operation of pressure relief systems. By combining structured methodology, calculation discipline, and lifecycle governance, the handbook equips organizations with a reliable roadmap for safe, efficient, and compliant implementation of relief devices across industrial projects.

Rp499.000
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Process

EMERGENCY MEASURES FOR PROCESS UNIT

The Emergency Measures Engineering Handbook provides an integrated framework for managing abnormal and emergency events across oil and gas, petrochemical, chemical, power, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine facilities. It establishes a structured approach that links recognition, classification, and response into a lifecycle assurance chain, ensuring that emergency preparedness is embedded into engineering and operations. Coverage begins with abnormal-event recognition and emergency classification, followed by alarm management and incident command protocols. Muster and shelter strategies are addressed to safeguard personnel, while emergency shutdown, isolation, depressuring, and flare coordination are emphasized to protect assets and maintain environmental compliance. The handbook systematically treats fire, explosion, toxic and flammable releases, utility loss, rotating equipment failures, vessel emergencies, electrical recovery, control-system restoration, spill containment, rescue operations, and natural hazards. Construction and commissioning phases are included to ensure reliability from project inception through operations. Technical notes provide screening-level equations for preliminary release, containment, firewater demand, pressure decay, toxic-dose estimation, ventilation adequacy, energy balance, reliability scoring, and shared-resource evaluation. These equations are intended as first-pass tools unless explicitly adopted in the project design basis. Appendices extend practical usability with calculation templates, material and procurement controls, inspection and test plans, field-release forms, commissioning records, maintenance procedures, industrial-sector matrices, quick-reference checklists, and image credits. Together, these resources support traceability, compliance, and operational readiness. The handbook’s objective is to deliver a professional, auditable, and field-usable reference that strengthens technical assurance, minimizes risk, and supports safe, efficient, and reliable emergency management. By combining structured methodology, technical rigor, and lifecycle integration, it equips organizations with a credible roadmap for consistent emergency preparedness and response across diverse industrial projects.

Rp499.000
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Process

PRESSURE RELIEVING DESIGN

The Pressure Relieving Design Handbook provides a lifecycle-oriented framework for protecting pressure vessels, piping systems, and process equipment against credible overpressure events. Effective design requires accurate process data, systematic scenario identification, appropriate relief-load calculation, correct device selection and sizing, consideration of accumulation and backpressure, safe discharge routing, and robust lifecycle management. The handbook integrates engineering theory with project deliverables and field practices. It addresses gas, vapor, liquid, and two-phase services, ensuring that relief systems are adaptable to diverse operating conditions. Device coverage includes conventional relief valves, balanced-bellows valves, pilot-operated valves, and rupture discs. Flare and blowdown systems are treated as integral discharge pathways, with emphasis on safe routing, environmental compliance, and mechanical integrity. Supporting topics include material selection, procurement controls, inspection and test planning, commissioning procedures, maintenance strategies, reliability indicators, documentation requirements, and risk management. Each element is presented as part of a continuous assurance chain, ensuring traceability and compliance with codes and standards. Worked examples illustrate transparent calculation logic, including relief-load determination, valve sizing, accumulation checks, backpressure evaluation, flare capacity assessment, hydrotest pressure verification, and risk-reduction scoring. These examples use SI units and are intentionally transparent so that assumptions and units can be checked, but they must be replaced with validated project-specific data and approved software models during execution. Technical outputs include controlled calculation notes, demand summaries, device specifications, inspection records, commissioning forms, and maintenance criteria. Appendices provide reusable templates, inspection and test plan (ITP) records, commissioning certificates, maintenance logs, and sector-specific application matrices. Industrial applications span oil and gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine facilities. Sector-specific considerations highlight unique risks, demand profiles, and regulatory requirements. The overall objective is to deliver a professional, auditable, and field-usable reference that strengthens technical assurance, minimizes risk, and supports safe, efficient, and compliant pressure-relieving system implementation. By combining structured methodology, calculation discipline, and lifecycle governance, the Pressure Relieving Design Handbook equips organizations with a reliable roadmap for consistent design, commissioning, and maintenance of relief systems across industrial projects.

Rp499.000
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Process

FURNACES HEAT TRANSFER PROCESS

The Furnaces Heat Transfer Process Handbook provides a lifecycle-oriented technical framework for the design, operation, and maintenance of industrial furnaces and fired heaters. It explains the principles of thermal fundamentals and furnace configuration, linking process requirements to duty, efficiency, and safe operating envelopes. Radiant and convection sections are analyzed in detail, together with combustion processes, burner selection, draft systems, tube metallurgy, refractory design, structural considerations, instrumentation, and control strategies. The handbook emphasizes safety and reliability by integrating fabrication planning, logistics, erection methods, commissioning procedures, operational practices, inspection protocols, maintenance strategies, and troubleshooting techniques. Each stage of the lifecycle is treated as part of a continuous assurance chain, ensuring that furnace systems are technically justified, testable, maintainable, and aligned with project and regulatory requirements. Worked examples are provided using SI units, focusing on transparent calculation logic rather than replacing validated project models. These examples illustrate heat-balance reconciliation, duty estimation, efficiency checks, draft calculations, tube stress analysis, refractory heat-loss estimation, and combustion air requirements. Simplified models are included to demonstrate engineering reasoning, but final calculations must be reconciled with approved project data and validated software. Supporting resources include editable forms for material control, inspection records, field-release documentation, commissioning certificates, and maintenance logs. These tools enable traceable evidence of compliance and operational readiness. Visual content such as field-style photographs, 3D engineering schematics, and workflow diagrams enhance clarity and usability, ensuring that complex concepts are communicated effectively to multidisciplinary teams. Industrial applications span oil and gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine facilities. Sector-specific considerations highlight unique thermal challenges, environmental conditions, and regulatory requirements. The overall objective is to deliver a professional, auditable, and field-usable reference that strengthens technical assurance, minimizes risk, and supports safe, efficient, and compliant furnace implementation. By combining structured methodology, calculation discipline, and lifecycle governance, the Furnaces Heat Transfer Process Handbook equips organizations with a reliable roadmap for consistent design, operation, and maintenance of fired-heater systems across industrial projects.

Rp499.000
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Process

SHELL AND TUBE HEAT EXCHANGERS

Shell-and-Tube Heat Exchanger Handbook presents a professional, lifecycle-oriented framework for the design, fabrication, installation, commissioning, operation, and maintenance of shell-and-tube heat exchangers. It explains how process requirements are systematically converted into configuration, thermal geometry, pressure boundary, material specification, fabrication plan, inspection program, installation method, commissioning procedure, operating envelope, and maintenance strategy. Technical content includes heat and material balances, log mean temperature difference (LMTD) and correction factors, overall heat-transfer coefficients, thermal sizing and rating, and pressure-drop components. Flow-induced vibration, code-based mechanical design concepts, thermal expansion, corrosion, and fouling mechanisms are addressed to ensure reliability and safety. Tube-to-tubesheet joints, welding and heat treatment, nondestructive examination (NDE), and hydrotesting are covered to provide traceable quality assurance. Procurement, vendor-document control, preservation, shipping, lifting, construction, and nozzle alignment are integrated into the lifecycle workflow. Performance testing, troubleshooting, cleaning, inspection, reliability, and risk management complete the operational framework. Worked examples demonstrate preliminary duty estimation, LMTD application, heat-transfer area calculation, utility demand reconciliation, pressure-drop evaluation, shell-thickness determination, corrosion-rate estimation, tube expansion analysis, weld heat-input calculation, hydrotest pressure determination, technical bid scoring, sling-tension checks, thermal-growth assessment, commissioning duty verification, cleanliness factor evaluation, fouling resistance estimation, sector-selection scoring, and risk-reduction strategies. These examples are intentionally transparent so that assumptions, units, and calculation steps can be checked and validated. Each chapter is structured to combine technical rigor with practical usability. Chapters begin with design criteria, followed by calculation notes, worked examples, inspection checkpoints, and maintenance considerations. Appendices provide datasheet templates, QA/QC forms, commissioning records, and sector-specific application matrices. The overall objective is to deliver a professional, auditable, and field-usable reference that strengthens technical assurance, minimizes risk, and supports safe, efficient, and compliant heat-exchanger implementation. By combining structured methodology, calculation discipline, and lifecycle governance, TEP‑A230‑01 equips organizations with a reliable roadmap for consistent design, fabrication, and operation of shell-and-tube heat exchangers across industrial projects.

Rp499.000
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Process

CONTROL VALVE PROCESS INSTRUMENTATION

This handbook provides an integrated technical framework for control-valve engineering across oil and gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine applications. It is intended to support engineers, designers, inspectors, construction teams, commissioning personnel, maintenance specialists, and asset owners in making consistent technical decisions throughout the complete control-valve life cycle. The handbook connects process requirements with mechanical design, instrumentation, safety, quality, construction, reliability, and maintainability considerations needed to transform a control philosophy into a dependable final control element. Core topics include control-loop dynamics, valve type and trim selection, inherent and installed flow characteristics, rangeability, pressure recovery, and operating stability. Detailed guidance is provided for sizing liquids, gases, vapors, steam, flashing services, and selected two-phase applications, including evaluation of cavitation, choked flow, aerodynamic and hydrodynamic noise, vibration, and erosion risks. The handbook also addresses actuator thrust and torque requirements, pneumatic and electric actuation, positioners, solenoid valves, boosters, air sets, limit switches, and associated accessories. Additional sections cover fail-safe action, shutdown philosophy, functional safety, materials selection, corrosion resistance, pressure integrity, seat leakage, fugitive emissions, packing systems, fire-safe requirements, instrument-air quality, hazardous-area considerations, ingress protection, and environmental conditions. Practical engineering documentation is discussed through data sheets, specifications, requisitions, bid evaluations, vendor drawings, calculations, inspection records, and certification requirements. The handbook further explains procurement, vendor qualification, manufacturing surveillance, inspection and testing, factory acceptance testing, preservation, packing, storage, installation, calibration, loop checking, commissioning, troubleshooting, preventive maintenance, diagnostics, and performance monitoring. Sector-specific guidance highlights differences in service severity, reliability expectations, maintainability, environmental exposure, and regulatory demands. The overall objective is to provide a practical, technically rigorous reference that helps project and operating teams select, specify, purchase, install, commission, operate, and maintain control valves safely, efficiently, and consistently throughout their service life. Worked examples, engineering checklists, acceptance criteria, common failure modes, and recommended review points are included to strengthen design verification, interdisciplinary coordination, vendor communication, field execution, and long-term equipment reliability across both new-build and brownfield projects.

Rp499.000
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PREPARATION OF LEVEL CONTROL AND LEVEL GAUGE ARRANGEMENT

The Level Control and Gauge Arrangement Handbook presents an integrated engineering methodology for preparing level-control and level-gauge arrangements across tanks, vessels, separators, columns, drums, reactors, boilers, sumps, silos, and other industrial equipment. Its central objective is to provide measurement and control systems that are accurate for the duty, safe under credible failure conditions, operable by field personnel, maintainable throughout the asset lifecycle, and fully documented. The handbook covers a wide range of technologies including direct-reading gauge glass, magnetic gauges, float and displacer devices, differential-pressure systems, remote seals, radar, guided-wave radar, ultrasonic, capacitance, radiometric, load-cell, and solids measurement. It also addresses interface-level detection, point switches, independent overfill protection, level controllers, control valves, pump control, nozzle and chamber layout, impulse piping, materials, hazardous-area classification, procurement, fabrication, inspection, construction, commissioning, operation, and reliability. Calculation notes provide guidance on hydrostatic pressure determination, wet-leg zero shift, remote-seal head corrections, radar and ultrasonic time-of-flight analysis, interface sensitivity checks, vessel volume estimation, overfill response time, simplified control-valve sizing, pump inventory balance, welding heat input, calibration error, and lifecycle completion metrics. Worked examples are included to illustrate transparent calculation methods, but final calculations must be replaced with project-specific and vendor-approved data to ensure compliance and accuracy. Each chapter is structured to combine technical rigor with practical usability. Chapters begin with field references and unique 3D engineering schematics, followed by required data fields, calculation notes, worked examples, quality gates, inspection checkpoints, and maintenance considerations. Appendices provide master lists, datasheet templates, inspection and test plan (ITP) records, commissioning forms, maintenance records, and an industrial-sector application matrix. The overall objective is to deliver a professional, auditable, and field-usable reference that strengthens technical assurance, minimizes risk, and supports safe, efficient, and compliant level-control implementation. By combining structured methodology, calculation discipline, and lifecycle governance, the Level Control and Gauge Arrangement Handbook equips organizations with a reliable roadmap for consistent design, review, and maintenance of level-measurement systems across industrial projects.

Rp499.000
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Process

PREPARATION OF INSTRUMENT DATA

The Preparation of Instrument Data Handbook provides a comprehensive and structured methodology for preparing, verifying, and maintaining instrument data from early design through operations. It is organized into twenty-four chapters that cover design basis, tag numbering, datasheet architecture, measurement technologies, final control elements, analyzers, fire and gas systems, metering, installation materials, control-system interfaces, vendor packages, procurement, inspection, shipping, site installation, commissioning, and maintenance. Each chapter is designed as a practical module that includes an actual field reference, a unique 3D engineering schematic, required data fields, calculation notes, worked examples, quality gates, inspection checkpoints, and maintenance considerations. The handbook emphasizes disciplined data preparation as a cornerstone of safe and reliable project execution. Safety-critical fields are never assumed; missing information must be formally queried and tracked. Every value is required to have an identifiable source, unit, revision, reviewer, and approval status. Interfaces are resolved before procurement, and vendor deviations are incorporated under document control. As-built and commissioning results are returned to the master data set to ensure continuity for operations and maintenance. Supporting appendices provide ready-to-adapt master lists, datasheet templates, inspection and test plan (ITP) records, commissioning forms, maintenance records, and an industrial-sector application matrix. These resources enable project teams to implement consistent practices across oil and gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine facilities. The methodology integrates calculation discipline with lifecycle governance. Worked examples illustrate transparent hand calculations, which must be validated against approved software where required. Quality gates and inspection checkpoints ensure traceability, while commissioning and maintenance considerations embed long-term reliability into the data framework. The overall objective is to deliver a professional, auditable, and field-usable reference that strengthens technical assurance, minimizes risk, and supports safe, efficient, and compliant instrumentation management. By combining structured methodology, visual clarity, and lifecycle integration, the Preparation of Instrument Data Handbook equips organizations with a reliable roadmap for consistent preparation and governance of instrument data across industrial projects.

Rp499.000
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Process

DESIGN MANUAL FOR FIRE PROTECTION

The Fire Protection Design Manual Version 1.0 establishes a structured engineering approach for the specification, design, and lifecycle assurance of fire-protection systems across oil and gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine facilities. It provides a comprehensive methodology that integrates hazard identification, design philosophy, firewater demand and storage, pumping and distribution, hydrants, monitors, hose systems, automatic sprinklers, water spray and deluge, foam systems, gaseous and clean-agent suppression, portable extinguishers, fire detection and alarm, fire-and-gas integration, passive protection, life safety, materials, procurement, construction, commissioning, inspection, maintenance, and reliability. The manual emphasizes the importance of defining credible fire scenarios, simultaneous system demand, required duration, residual pressure, environmental conditions, hazardous-area classification, system availability, redundancy, impairment control, and long-term maintainability. Calculation methods include firewater demand summation, Hazen-Williams head-loss equations, pump total dynamic head determination, sprinkler density-area checks, foam-solution quantity estimation, gaseous-agent discharge calculations, battery capacity sizing, and voltage-drop verification. Worked examples are illustrative and must be replaced by project-specific verified calculations to ensure compliance and accuracy. Supporting resources include technical tables, checklists, material specifications, inspection and test plans (ITPs), field release records, commissioning forms, and maintenance frequencies. These tools provide traceable evidence of quality assurance and operational readiness. Representative field-style images and 3D engineering visualizations are included to improve clarity and communication, while maintaining the requirement that approved vendor and project documents govern fabrication and construction. Each chapter is structured to combine technical rigor with practical usability, beginning with design criteria, followed by calculation notes, material requirements, procurement guidance, and inspection protocols. Lifecycle diagrams illustrate the integration of fire-protection systems into broader project governance, ensuring that designs are auditable, maintainable, and aligned with authority-approved project bases. The overall objective is to deliver a professional, traceable, and field-usable reference that strengthens technical assurance, minimizes risk, and supports safe, efficient, and compliant fire-protection implementation. By combining structured methodology, calculation discipline, and lifecycle governance, the Fire Protection Design Manual equips organizations with a reliable roadmap for consistent fire-protection design and execution across industrial projects.

Rp499.000
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DATA SHEET FOR FIRE PROTECTION

The Fire Protection Data Sheet Handbook Version 1.0 provides a complete and structured framework for developing, reviewing, and maintaining fire-protection data sheets across industrial facilities. It establishes a lifecycle methodology that integrates design basis, hazard assessment, codes and standards, hydraulic demand, equipment selection, material specification, procurement controls, fabrication, shipping, installation, construction, commissioning, and inspection-based reliability management. The handbook emphasizes that fire-protection data sheets are not isolated documents but part of a traceable assurance chain. Each sheet must capture design intent, technical parameters, and lifecycle requirements in a format that is auditable, consistent, and adaptable to project-specific conditions. Hazard assessments and code compliance are treated as governing inputs, while hydraulic demand calculations and equipment selection ensure that systems are technically justified and operationally reliable. Practical visual content enhances usability: equipment photographs, 3D-style construction drawings, workflow diagrams, lifecycle schematics, technical tables, and checklists. Maintenance frequencies and reliability indicators are included to support long-term asset integrity. Sample inspection and commissioning records provide traceable evidence of readiness and compliance, ensuring that fire-protection systems can be tested, maintained, and handed over with confidence. Each chapter is structured to combine technical rigor with practical application. Chapters begin with design criteria, followed by calculation notes, material requirements, procurement and fabrication guidance, and inspection protocols. Workflow diagrams illustrate the sequence from design basis through commissioning and handover, while lifecycle diagrams highlight the integration of fire-protection systems into broader project governance. Industrial applications span oil and gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine sectors. Sector-specific matrices provide tailored guidance for unique risks, demand profiles, and regulatory requirements. The overall objective is to deliver a professional, auditable, and field-usable reference that strengthens technical assurance, minimizes risk, and supports safe, efficient, and compliant fire-protection implementation. By combining structured methodology, visual clarity, and lifecycle governance, the Fire Protection Data Sheet Handbook equips organizations with a reliable roadmap for consistent design, review, and maintenance of fire-protection documentation.

Rp499.000
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PROJECT SPECIFICATION FOR FIRE PROTECTION

The Fire Protection System Specification Handbook defines a risk-based framework for the design, evaluation, and lifecycle assurance of fire-protection systems in industrial and infrastructure facilities. A fire-protection system safeguards people, environment, equipment, structures, and business continuity by combining prevention, detection, alarm, isolation, passive containment, active suppression, and organized emergency response. System adequacy depends not only on installed equipment, but also on credible fire scenarios, reliable water and agent supplies, hydraulic performance, safe layout, maintainability, testing, and disciplined operational control. The handbook covers fire-water storage and pumps, ring mains, hydrants, monitors, sprinklers, standpipes, deluge systems, water spray, water mist, foam systems, clean agents, gaseous suppression, portable extinguishers, fire detection and alarm systems, passive fire protection, drainage, materials, quality assurance, commissioning, and reliability. Each element is treated as part of an integrated assurance chain, ensuring that designs are technically justified, testable, and maintainable. Technical content includes calculation notes, worked examples, technical tables, material lists, lifecycle controls, inspection and test plan (ITP) concepts, field and commissioning forms, maintenance frequencies, industrial-sector matrices, and final handover requirements. Worked examples illustrate transparent calculation methods but must be reconciled with approved hydraulic or agent-specific software and replaced with project-specific data during execution. The methodology begins with a controlled design basis and fire-scenario register, proceeds through demand estimation, duration and pressure analysis, friction and equipment selection, and concludes with procurement data, inspection records, commissioning evidence, and maintenance documentation. This structured workflow ensures traceability, reduces late rework, and supports smooth transitions from design to operations. The handbook is written for adaptation to actual projects and must be reconciled with contracts, adopted code editions, and authority requirements. Its objective is to deliver a professional, auditable, and field-usable reference that strengthens technical assurance, minimizes risk, and supports safe, efficient, and compliant fire-protection implementation across oil and gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine facilities.

Rp499.000
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Process

FIRE PROTECTION LAYOUT

The Fire Protection Layout Handbook Version 1.0 provides a structured engineering reference for the development, review, and maintenance of fire-protection layouts in industrial and infrastructure facilities. It establishes a comprehensive methodology that integrates fire-water storage and pumping systems, ring mains, hydrants, monitors, hose systems, sprinklers, deluge networks, water spray, foam-water systems, gaseous suppression, portable extinguishers, fire detection and alarm systems, passive fire protection, and emergency-access considerations. The handbook emphasizes that fire-protection layouts must be technically justified, constructible, testable, and maintainable throughout the asset lifecycle. Design criteria are clearly defined, supported by core equations and worked examples that illustrate calculation methods and layout principles. Material requirements and procurement controls are included to ensure compliance with standards and reliability of installed systems. Inspection and test plans (ITPs), construction hold points, commissioning records, and maintenance frequencies are integrated to provide traceable evidence of quality assurance and operational readiness. Reliability indicators and sector-specific application matrices are provided to adapt layouts to diverse environments such as oil and gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine facilities. Each chapter is structured to combine technical rigor with practical usability, beginning with an original field-reference visualization, followed by a distinct 3D engineering schematic, and concluding with a technical workflow diagram. This layered approach ensures clarity of concept, consistency of execution, and traceability of decisions. The handbook’s objective is to deliver a professional, auditable, and field-usable reference that strengthens technical assurance, minimizes risk, and supports safe and efficient fire-protection implementation. By combining structured methodology, calculation discipline, visualization tools, and lifecycle governance, the Fire Protection Layout Handbook equips organizations with a reliable roadmap for consistent design, review, and maintenance of fire-protection systems across industrial projects

Rp499.000
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CALCULATION FOR FIRE PROTECTION

The Fire Protection Calculation and Verification Handbook presents an integrated methodology for the calculation, verification, and lifecycle assurance of fire-protection systems across industrial facilities. It establishes a structured workflow that begins with a controlled design basis and fire-scenario register, proceeds through demand estimation, duration analysis, pressure and friction calculations, and equipment selection, and concludes with procurement data, inspection and test plans, commissioning evidence, and maintenance records. The handbook covers fire-water storage, hydraulic networks, hydrants, hose streams, monitors, hose reels, automatic sprinklers, standpipes, fire pumps, jockey pumps, pump drivers, suction and net positive suction head (NPSH) requirements, deluge systems, water spray, foam-water systems, exposure cooling, gaseous suppression, portable extinguishers, fire alarm power, piping materials, mechanical integrity, and lifecycle quality controls. Each system is treated as part of a continuous assurance chain, ensuring that design outputs are technically justified, testable, and maintainable. Technical outputs include controlled calculation notes, demand summaries, storage capacity verification, pump duty specifications, pipe-loss checks, sprinkler and hydrant requirements, foam calculations, inspection and test plan (ITP) records, field-release evidence, commissioning forms, and maintenance criteria. Worked examples illustrate transparent hand calculations, which must be validated against approved hydraulic or agent-specific software where required. These examples are intended for training and guidance only and must be replaced by project-specific data during execution. Industrial applications span oil and gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine facilities. Sector-specific considerations highlight unique risks, demand profiles, and regulatory requirements, ensuring adaptability across diverse environments. The overall objective is to deliver a fire-protection design framework that is technically rigorous, operationally reliable, and aligned with authority-approved project bases. By combining structured methodology, calculation discipline, verification procedures, and lifecycle governance, the handbook equips organizations with a professional, traceable, and field-usable reference. This strengthens technical assurance, minimizes risk, and supports safe, efficient, and compliant fire-protection implementation across industrial projects.

Rp499.000
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DRAWING STANDARD FOR P & ID PREPARATION

The Drawing Standard for P&ID Preparation Handbook Version 1.0 establishes a controlled engineering framework for preparing, reviewing, issuing, verifying, and maintaining piping and instrumentation diagrams (P&IDs). As one of the most heavily used engineering documents in process facilities, P&IDs link process intent with equipment, piping, control, safeguarding, construction, commissioning, operation, maintenance, and future modification. The handbook emphasizes that small drafting inconsistencies can create disproportionate risks, such as unclear boundaries misdirecting tie‑ins, omitted drains affecting commissioning, or untraceable trips weakening safety reviews. The scope covers governance, drawing architecture, technical representation, lifecycle workflow, verification, and sector applications. Governance defines document hierarchy, tagging, legends, revisions, and interface responsibilities. Drawing architecture addresses sheet setup, title blocks, layers, line weights, text, connectors, and electronic issue. Technical representation includes equipment, piping, valves, specialties, instruments, control loops, relief systems, shutdown functions, and fire‑and‑gas interfaces. Lifecycle workflow integrates inputs, reviews, HAZOP/LOPA incorporation, vendor packages, management of change, IFC release, field redlines, and as‑built handover. Verification is supported by worked examples, calculation notes, QA checklists, inspection records, and commissioning forms. The handbook contains more than one hundred controlled‑layout pages with original 3D‑style illustrations, technical tables, field reference photographs, and reusable forms. Each chapter begins with objectives, technical sections, worked examples, quality gates, and record forms, ensuring traceability and consistency. Appendices provide symbol libraries, calculation notes, QA/QC forms, commissioning certificates, sector matrices, standards registers, and attribution records. Intended users include process, piping, mechanical, instrumentation, electrical, HSE, construction, commissioning, operations, maintenance, document‑control, and digital‑handover personnel. The handbook commits to functional clarity, controlled identity for each tag and line, traceable safety information, and maintainable records governed through management of change. Lifecycle outcomes include constructible and testable design information, verified as‑built records, and reliable handover. Overall, Drawing Standard for P&ID Preparation delivers a professional, traceable, and field‑usable reference that strengthens technical assurance, minimizes risk, and establishes a credible baseline for industrial projects. By combining structured methodology, symbol discipline, workflow controls, and lifecycle governance, it equips organizations to achieve safe, efficient, and compliant P&ID preparation and handover.

Rp499.000
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EXECUTION PROCEDURE OF P & ID

The Piping and Instrumentation Diagram (P&ID) Procedure Handbook provides a structured engineering procedure for the preparation, checking, issue, field verification, and maintenance of P&IDs. It is intended as professional guidance and training material for engineers, designers, and project teams. The handbook emphasizes that it does not replace project-specific design criteria, licensed professional judgment, statutory requirements, client standards, approved calculations, vendor instructions, or governing codes and standards. Users are required to verify the current edition and contractual applicability of every referenced standard. Key references include ANSI/ISA‑5.1, ISO 10628, IEC 62424, IEC 61511, and other international standards. These are cited by title only, with protected technical content not reproduced. Where the handbook differs from project specifications or legal requirements, the approved project requirement always governs. All technical diagrams and field-inspired 3D visuals included are original illustrative graphics prepared specifically for this document. They are not photographs of operating facilities and shall not be used as construction drawings. Equipment tags, line numbers, dimensions, conditions, and examples are fictional unless explicitly stated otherwise. This ensures clarity of concept without risk of misapplication in real projects. The handbook provides a lifecycle approach: preparation of diagrams, systematic checking, controlled issue, field verification during construction, and maintenance updates during operations. Each stage is supported by structured procedures, review checklists, and traceable records to ensure accuracy and compliance. Appendices include standards registers, compliance forms, audit checklists, inspection/test plans, and maintenance logs. These resources enable project teams to implement consistent practices, maintain quality assurance, and demonstrate compliance through auditable evidence. The overall objective is to deliver a professional, traceable, and field-usable reference that strengthens technical assurance, minimizes risk, and supports reliable project execution. By combining structured methodology, illustrative visuals, and lifecycle governance, the P&ID Procedure Handbook equips organizations with a disciplined roadmap for safe, efficient, and compliant process engineering documentation

Rp499.000
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PROCESS CONTROL SCHEMES

The Process Control Schemes Handbook Version 1.0 presents a comprehensive technical reference for the design, evaluation, and implementation of process-control systems across industrial facilities. It establishes a structured framework that integrates control-loop fundamentals, measurement principles, and final control elements with advanced strategies such as proportional-integral-derivative (PID) tuning and multivariable control. Coverage includes rotating equipment, fired systems, separation processes, reactors, and utilities, ensuring that control schemes are adaptable to diverse industrial applications. Control-system integration is emphasized, linking distributed control systems (DCS), programmable logic controllers (PLC), and supervisory control and data acquisition (SCADA) platforms with documentation, calculations, inspection, commissioning, and maintenance practices. The handbook provides technical tables, checklists, and material considerations to support procurement and reliability decisions. Inspection and commissioning records are included to ensure traceability and compliance with project requirements. Worked examples illustrate practical applications, while maintenance frequencies and reliability procedures guide long-term operation. Engineering illustrations clarify complex concepts, making the handbook both rigorous and accessible. Applications are discussed across oil and gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, and infrastructure/marine sectors. Each sector analysis highlights unique control challenges, risk factors, and adaptation strategies, ensuring that the handbook remains relevant across diverse environments. Each chapter is structured to provide objectives, execution procedures, representative control-scheme maps, cross-discipline interfaces, lifecycle control matrices, verification frequencies, application cases, and acceptance gates. This systematic approach ensures that process-control schemes are not isolated tasks but integrated lifecycle activities that support safe start-up, reliable operation, and disciplined handover. The overall objective is to deliver a professional, traceable, and field-usable reference that strengthens technical assurance, minimizes risk, and establishes a credible baseline for industrial projects. By combining structured methodology, technical rigor, and lifecycle integration, the Process Control Schemes Handbook equips organizations with a reliable roadmap for consistent, safe, and efficient process-control implementation.

Rp499.000
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COMPUTER PROGRAM PROCESS ENGINEERING

COMPUTER PROGRAM PROCESS ENGINEERING Handbook provides a comprehensive and professional guide to computer programs used in process engineering. It establishes a structured framework for software strategy, selection, and governance, ensuring that engineering teams apply digital tools in a traceable, reliable, and risk‑based manner. Coverage begins with engineering data management, process modelling, and thermodynamics, followed by steady‑state and dynamic simulation. Equipment rating, heat transfer, piping hydraulics, instrumentation, and control are addressed to ensure that models reflect physical reality and operational constraints. Advanced analytics, project systems, and quality assurance are integrated to strengthen decision‑making and reduce uncertainty. Implementation governance and reliability practices are emphasized to prevent uncontrolled variation and to support lifecycle assurance. The handbook also explores digital twins, industrial applications, and emerging artificial‑intelligence technologies. These sections highlight how modern computational methods can enhance predictive capability, optimize plant performance, and support continuous improvement across industrial sectors. Each chapter is organized as a practical mini‑module. The first page establishes scope and context using a unique industrial visual plate. The second page explains governing theory and calculation basis. The third page presents a technical workflow and software‑function matrix. The fourth page provides a worked application and review checklist. The fifth page addresses lifecycle interfaces, industrial sectors, risks, controls, and handover requirements. The intended result is a traceable and repeatable way to use engineering software. Controlled input data, fit‑for‑purpose models, verified calculations, documented assumptions, independent review, approved outputs, and reliable handover to downstream project and operating teams are all embedded as assurance checkpoints. By combining structured methodology, technical rigor, and lifecycle governance, TEP‑A223‑03 equips organizations with a professional reference that strengthens engineering quality, minimizes risk, and ensures that digital tools deliver consistent value across the asset lifecycle

Rp499.000
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PROCESS ENGINEERING EVALUATION

The Process Engineering Evaluation Handbook Version 1.0 provides a comprehensive, professional, and risk-based framework for evaluating process engineering deliverables and their implementation across the asset lifecycle. It is designed to serve as a structured reference for engineers, project managers, and technical reviewers, ensuring that every stage of process engineering is aligned with safety, reliability, and operational readiness. The handbook begins with design intent, technical calculations, and equipment and material selection. It emphasizes the importance of establishing a clear engineering basis that reflects project objectives, operational constraints, and industry standards. Process safety, control systems, utilities, operability, and reliability are integrated into the evaluation framework to guarantee that facilities are not only technically robust but also safe, efficient, and sustainable. Environmental performance and value engineering are addressed to balance technical rigor with economic viability and ecological responsibility. Beyond design, the handbook extends evaluation into project risk management, constructability, procurement, fabrication, transportation, installation, and commissioning. Each stage is treated as part of a continuous assurance chain, preventing late discovery of requirements and minimizing costly rework. Preservation practices, inspection evidence, and readiness verification are highlighted to support smooth transitions from engineering to construction and ultimately to operations. Digital information handover is included as a critical component, ensuring that models, calculations, and records are transferred in a structured, auditable format. This supports lifecycle integrity, reliability demonstration, and long-term asset management. Each chapter provides objectives, evaluation procedures, representative deliverable maps, cross-discipline interfaces, verification matrices, application cases, and acceptance gates. Appendices offer registers, compliance forms, audit checklists, inspection/test plans, and lifecycle workpacks. The overall objective is to deliver a professional, traceable, and field-usable reference that strengthens technical assurance, minimizes risk, and establishes a credible baseline for industrial projects. By combining structured methodology, risk-based evaluation, and lifecycle integration, the handbook equips organizations to achieve reliable, safe, and efficient project delivery

Rp499.000
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PROCESS DEVELOPMENT AND CONFERENCE

The Process Development and Conference Handbook defines an integrated framework that combines process-development methodology with structured technical-conference governance for industrial projects. It establishes a clear link between engineering basis definition, technology selection, flowsheet development, material and energy balances, simulation, equipment sizing, utility integration, control strategies, safety considerations, environmental impact, plant layout, economic evaluation, and execution readiness. This holistic approach ensures that process engineering decisions are technically sound, economically viable, and operationally practical. The execution lifecycle extends process engineering into downstream project phases, including procurement, fabrication, inspection, preservation, logistics, construction, pre-commissioning, start-up, performance testing, reliability demonstration, and information handover. By embedding lifecycle awareness early in process development, the handbook prevents late discovery of requirements and supports smoother transitions from design to operations. This reduces rework, strengthens traceability, and enhances readiness for commissioning and long-term operation. Conference governance is treated as a controlled decision-making system. Technical conferences are defined as structured events with required inputs, attendee roles, agendas, pre-read packages, decision records, minutes, action ownership, due dates, and closure evidence. This governance model improves decision quality, shortens cycles, and ensures accountability across multidisciplinary teams. Deliverables include an industrial-sector matrix, an integrated worked example, and standardized templates for calculations, datasheets, inspection and test plans (ITPs), field release documentation, commissioning protocols, performance testing records, and maintenance logs. These resources provide both engineering rigor and practical usability, enabling teams to implement consistent practices across diverse industrial environments. The handbook’s objective is to deliver a professional, traceable, and field-usable reference that integrates process engineering with structured decision governance. By combining technical methodology, lifecycle execution, and conference discipline, it equips organizations with a reliable roadmap for safe, efficient, and auditable industrial project delivery.

Rp499.000
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Process

AMERICAN PETROLEUM INSTITUTE (API)

The API Publications Application & Assurance Handbook defines a comprehensive methodology for selecting, applying, and assuring American Petroleum Institute (API) publications across upstream, midstream, downstream, terminal, marine, and industrial facilities. It establishes a lifecycle framework that integrates governance, technical application, and compliance assurance. Coverage begins with API publication types, governance structures, and edition control, including addenda and errata management. It details API Spec Q1 and Q2 requirements, Monogram licensing, and APIQR certification. Equipment-specific guidance spans well equipment, tubular products, offshore systems, pipeline welding and integrity, tank design and inspection, and pressure vessel and piping mechanical integrity. Damage mechanisms, risk-based inspection (RBI), and fitness-for-service assessments are addressed alongside pressure relief, depressuring systems, process-safety indicators, and facility siting. Rotating and auxiliary systems such as pumps, seals, compressors, turbines, and thermal equipment are included, together with fire protection, custody measurement, and terminal operations. Welding, non-destructive examination (NDE), and material verification are treated as critical assurance activities. Procurement, inspection and test plans (ITPs), commissioning, and lifecycle handover are integrated to ensure traceability and compliance. Each chapter is structured with a clear objective, execution procedure, representative API document map, cross-discipline interfaces, lifecycle control matrix, verification frequency, application case, and acceptance gate. This systematic approach ensures consistency and reliability across diverse industrial sectors. Appendices provide practical tools: standards registers, compliance forms, audit checklists, inspection/test plans, integrity workpacks, sector matrices, glossary, and an official source register. These resources enable project teams to implement API publications effectively, maintain compliance, and demonstrate assurance through auditable evidence. The handbook’s objective is to deliver a professional, traceable, and field-usable reference that reduces late rework, strengthens integrity management, and establishes a credible technical baseline for operations and maintenance. By combining structured methodology, technical rigor, and lifecycle assurance, it equips organizations to apply API standards consistently across global energy and industrial projects.

Rp499.000
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Commissioning

TEP-D000-03 PRECOMMISSIONING AND COMMISSIONING HANDBOOK

The *Precommissioning & Commissioning Handbook Version 1.0.1* provides an integrated framework for completion management and commissioning of industrial facilities across oil and gas, petrochemical, chemical, power, water and wastewater, mining, manufacturing, offshore, and infrastructure/marine sectors. It is designed to guide project teams through structured preparation, disciplined execution, and reliable handover to operations. The handbook covers commissioning philosophy, systemization, mechanical completion verification, flushing and cleaning, hydrostatic and pneumatic testing, static and rotating equipment readiness, electrical systems, instrumentation and control, fire and gas systems, emergency shutdown (ESD), utilities, specialty cleaning, start-up sequencing, performance testing, reliability runs, HSE requirements, PTW/LOTO/SIMOPS, preservation, maintenance, handover, documentation, vendor packages, procurement interfaces, and heavy installation support. Technical content includes calculation notes, worked examples, material and equipment requirements, inspection and test plan (ITP) concepts, field release criteria, commissioning forms, maintenance frequency guidance, inspection records, sector application matrices, and technical flow diagrams. These resources provide both engineering rigor and practical usability, ensuring that commissioning activities are traceable, auditable, and aligned with project specifications. The methodology emphasizes risk-based planning, progressive verification, and quality gate management. By linking procedures, checklists, test records, and certificates to clear handover gates, the handbook ensures that no system proceeds to the next phase without controlled acceptance evidence. The lifecycle perspective extends from design and fabrication through shipping, installation, construction, completion, commissioning, and maintenance. Sector applications demonstrate how commissioning priorities adapt to different industrial environments, ensuring readiness and reliability across diverse projects. The objective is to deliver a professional, traceable, and field-usable reference that helps project teams reduce late rework, protect equipment, improve readiness decisions, and establish a credible technical baseline for operations and maintenance. By combining structured methodology, technical evidence, and progressive handover practices, the *Precommissioning & Commissioning Handbook* equips teams with a clear roadmap for safe start-up and reliable long-term operation.

Rp499.000
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Commissioning

TEP-D000-02 MECHANICAL CMPLETION AND COMMISSIONING HANDBOOK

The *Mechanical Completion & Commissioning Handbook* presents an integrated methodology for managing the transition of industrial facilities from late construction through ready-for-start-up and operational handover. It establishes a structured framework based on systemization, tag-level verification, inspection and test records, controlled punch management, formal certificates, and progressive transfer of custody. The approach ensures that equipment and systems are correctly installed, preserved, cleaned, tested, safe to energize, and suitable for functional operation. Technical coverage includes mechanical installation and alignment, piping line checking, pressure testing, flushing, and reinstatement. It addresses vessels, tanks, exchangers, rotating equipment solo runs, vibration checks, valves, and relief devices. Electrical completion and energization interfaces are integrated with instrumentation calibration, loop checks, control-system and safety-system functional testing. Utility preparation, nitrogen and chemical cleaning, start-up sequencing, performance testing, reliability verification, and turnover dossier preparation are also included. The handbook provides calculation notes, worked examples, material and procurement controls, inspection forms, commissioning forms, maintenance frequency guidance, reliability concepts, industrial-sector application matrices, and visual engineering diagrams. These resources support both technical rigor and practical usability, ensuring that commissioning activities are traceable, auditable, and aligned with project requirements. The lifecycle perspective extends from design and fabrication through shipping, installation, construction with heavy-equipment interfaces, completion, commissioning, and maintenance. Sector applications include oil and gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, and infrastructure/marine facilities. The objective is to deliver a professional, traceable, and field-usable reference that helps project teams reduce late rework, protect equipment, improve readiness decisions, and establish a credible technical baseline for operations and maintenance. By combining structured methodology, technical evidence, and progressive handover practices, the *Mechanical Completion & Commissioning Handbook* equips teams with a clear roadmap for safe start-up and reliable long-term operation.

Rp499.000
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Construction

TEP-C000-03 LIFTING AND RIGGING HANDBOOK

The *Lifting and Rigging Handbook Version 1.0* is a comprehensive professional reference for industrial lifting planning, engineering, execution, inspection, and lifecycle management. It provides structured guidance for lift classification, JSA/TRA and permits, lifted weight determination, center of gravity and pick points, crane selection, load charts, ground bearing and outrigger support. It also covers hooks, blocks, hoist ropes, wire rope, chain and synthetic slings, shackles, rigging hardware, spreader and lifting beams, padeyes, lifting lugs, sling angles, hitches, and specialized lifts including critical, tandem, upending, offshore, and personnel lifts. The handbook integrates engineering equations with field controls. Core calculations include center-of-gravity moments, sling-leg tension, two-support load sharing, crane utilization, and average bearing pressure. These are paired with material and specification controls, technical tables, inspection and test plan (ITP) concepts, field release records, maintenance frequencies, construction workflow diagrams, and structured checklists. Practical implementation emphasizes risk-based planning, communication protocols, inspection discipline, maintenance practices, procurement, commissioning, emergency response, QA/QC, and digital rigging registers. Sector applications include oil and gas, petrochemical, power, mining, manufacturing, offshore, marine, and infrastructure projects. The handbook highlights the importance of traceability, competent personnel, calibrated equipment, hold-point discipline, and documented acceptance evidence. By combining engineering theory, field practices, and regulatory compliance, it ensures that lifting operations are executed safely, efficiently, and in alignment with industry standards. The standards framework references authoritative requirements checked in August 2026, including ISO 12480-1:2024, relevant ASME B30 volumes, ASME BTH-1, OSHA crane and rigging requirements, ISO wire-rope and crane-inspection standards, and Indonesian K3 lifting-equipment regulations. Project-specific engineering and manufacturer instructions remain controlling for actual operations. By integrating structured workflows, technical rigor, and visual learning tools, the *Lifting and Rigging Handbook Version 1.0* equips project teams with a consistent, auditable, and evidence-based lifting methodology. Its objective is to reduce quality risks, prevent rework, improve safety, and ensure reliable, technically compliant lifting operations across diverse industrial environments.

Rp499.000
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Construction

TEP-C000-02 CONSTRUCTION SUPERVISOR FIELD HANDBOOK

The *Construction Supervisor Handbook* provides a comprehensive field reference for supervisors responsible for multi-discipline industrial construction. It establishes a structured framework to guide supervision responsibilities, workface planning, document control, site logistics, surveying, civil and structural works, heavy lifting, mechanical and piping installation, electrical and instrumentation activities, protective coatings, QA/QC, HSE, productivity, material control, pre-commissioning, commissioning support, completion, and reliability transfer. Technical content includes first-principle calculation notes, worked examples, material and equipment controls, inspection and test plan (ITP) logic, field release practices, common records, maintenance and preservation frequencies, lifecycle diagrams, and supervisor decision points. These resources are designed to provide supervisors with a consistent method for turning approved engineering into safe, traceable, and high-quality installed work. The handbook emphasizes the importance of supervision discipline, ensuring that construction activities are linked to approved drawings, specifications, schedules, permits, and inspection points. It highlights risk management, safety leadership, and quality assurance as core responsibilities of the field supervisor. By integrating technical controls with practical checklists and decision gates, the handbook supports reliable execution and progressive acceptance of construction deliverables. An industrial application matrix is included to show how supervision priorities vary across process plants, utilities, mining, manufacturing, offshore, and infrastructure environments. This matrix helps supervisors adapt their focus depending on sector-specific risks, materials, and construction methods. The appendices provide reusable templates for inspection requests, material reports, NCRs, punch lists, test packages, and handover records. These tools ensure traceability, compliance, and efficient project close-out. Designed as a professional ready-to-print reference, yet editable for project-specific tailoring in Microsoft Word, the *Construction Supervisor Handbook* equips field leaders with practical guidance, technical rigor, and adaptable tools to strengthen supervision consistency, protect people and assets, and support complete, auditable handover to commissioning and operations.

Rp499.000
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Offshore

TEP-F000-03 OFFSHORE PLATFORM FABRICATION HANDBOOK

The *Offshore Platform Fabrication Handbook* presents a comprehensive framework for managing fabrication activities with emphasis on fixed steel jacket and topsides projects, while retaining principles applicable to modular offshore and marine structures. It integrates engineering inputs, materials and procurement control, cutting and forming, fit-up and welding, non-destructive testing (NDT), coating, structural assembly, lifting, load-out, transportation, offshore installation, commissioning, QA/QC, and long-term integrity into one lifecycle system. Technical content includes calculation notes, worked examples, material-control methods, inspection and test plan (ITP) concepts, field-release requirements, inspection forms, maintenance and reliability guidance, industrial application matrices, and equipment/material workflows. The intent is to provide a practical bridge between design documentation and executable field controls, ensuring that fabricated assets are technically correct, traceable, and ready for safe installation and operation. The handbook highlights the importance of traceability, change control, competent personnel, calibrated equipment, hold-point discipline, temporary works engineering, weight control, HSE management, and completion records. These principles are essential to protecting structural integrity and ensuring readiness for transport, offshore installation, and commissioning. Extensive appendices provide reusable templates for design basis development, material requisitions, fabrication inspection, pile driving, heavy lifting, subsea installation, pipeline pre-commissioning, electrical energization, instrument calibration, emergency drills, corrosion monitoring, preventive maintenance, spare parts, and final print-ready quality checks. These resources are designed to support both field execution and management oversight, offering a balance between technical rigor and practical usability. By combining structured workflows, inspection focus, and visual learning tools, the *Offshore Platform Fabrication Handbook* equips professionals with the knowledge to manage offshore fabrication safely, efficiently, and in compliance with industry standards. Its overall objective is to establish a consistent execution system that improves readiness, minimizes rework and delay, strengthens traceability, and supports reliable handover from fabrication to installation and operation.

Rp499.000
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Offshore

TEP-F000-01 OFFSHORE ENGINEERING HANDBOOK

The *Offshore Engineering Handbook* presents a complete and practical overview of offshore engineering, covering the entire lifecycle from concept selection through decommissioning. It treats fixed steel jackets, topsides, FPSOs, subsea production systems, pipelines, risers, moorings, process systems, mechanical equipment, electrical distribution, instrumentation, telecommunications, safety systems, and marine utilities as parts of one integrated facility. Engineering theory is supported by calculation notes, worked examples, material and equipment lists, design-driver tables, inspection checklists, ITP concepts, commissioning forms, maintenance and reliability guidance, integrity-management principles, and industrial-sector application matrices. Temporary conditions such as lifting, loadout, transportation, and installation receive the same level of attention as the final operating condition, ensuring that risks and constraints are managed throughout the project lifecycle. The handbook emphasizes lifecycle constructability, readiness, and safe transition into live operation. It highlights the importance of inspection evidence, material traceability, and progressive verification, ensuring that offshore projects are executed with technical rigor and documented acceptance. Extensive appendices provide reusable templates for design basis development, material requisitions, fabrication inspection, pile driving, heavy lifting, subsea installation, pipeline pre-commissioning, electrical energization, instrument calibration, emergency drills, corrosion monitoring, preventive maintenance, spare parts, and final print-ready quality checks. These resources are designed to support both field execution and management oversight, offering a balance between technical detail and practical usability. By combining structured workflows, inspection focus, and visual learning tools, the *Offshore Engineering Handbook* equips professionals with the knowledge to manage offshore facilities safely, efficiently, and in compliance with industry standards. Its overall objective is to establish a consistent execution system that improves readiness, protects people and assets, minimizes rework and delay, strengthens traceability, and supports reliable handover from construction to operations and ultimately to decommissioning.

Rp499.000
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QA/QC

TEP-A170-03 QA & QC MECHANICAL EQUIPMENT HANDBOOK

The *QA & QC Mechanical Equipment Handbook Version 1.0* provides a consolidated professional reference for inspection and quality management of rotating equipment, static equipment, valves, packaged skids, and associated mechanical construction activities. It integrates equipment engineering, vendor quality, fabrication, inspection and testing, site installation, commissioning, and reliability into a single lifecycle framework, ensuring consistency and traceability across all project phases. The handbook contains technical tables, checklists, sample material controls, inspection and test plan (ITP) logic, field release guidance, commissioning gates, maintenance-frequency recommendations, nonconformance controls, manufacturing record book (MRB) requirements, and worked calculation examples. Each chapter includes a dedicated visual plate combining an actual-style industrial inspection image with a 3D engineering schematic, plus a separate technical flow diagram to support both technical clarity and field learning. Industrial-sector application guidance covers oil and gas, petrochemical, chemical, power plants, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine projects. The emphasis is on scalable QA/QC: inspection depth and documentation increase with safety consequence, equipment criticality, materials risk, fabrication complexity, transport exposure, installation difficulty, and performance sensitivity. The appendices provide ready-to-adapt forms for vendor document review, receiving inspection, rotating and static equipment inspection, alignment, grouting, welding and NDE, coating, FAT, shipping release, site storage, heavy lifting, mechanical completion, pre-commissioning, commissioning, NCR/CAR, punch lists, maintenance records, MDR indexing, and final turnover. These resources ensure that inspection activities are auditable, practical, and aligned with project requirements. Intended as a professional training resource and project execution manual, the *QA & QC Mechanical Equipment Handbook Version 1.0* equips teams with structured guidance, visual learning tools, and practical templates to achieve safe, complete, and technically compliant delivery of mechanical equipment, supporting reliable construction progress and disciplined project close-out.

Rp499.000
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QA/QC

TEP-A170-02 QA & QC INSPECTION HANDBOOK

The *QA & QC Inspection Handbook* is a comprehensive reference for multidisciplinary engineering and construction projects, providing a controlled framework for inspection planning, execution, and documentation. It is designed to support project teams in achieving consistent decision-making, traceable quality evidence, reduced rework, and disciplined project close-out. The handbook begins with inspection planning, ITP development, and document control, then progresses through material receiving, traceability, vendor inspection, fabrication, welding, non-destructive testing (NDT), piping, mechanical equipment, civil works, concrete, structural steel, coatings, electrical systems, instrumentation, pressure testing, mechanical completion, pre-commissioning, commissioning, nonconformance control, and turnover dossiers. Each chapter defines purpose, interfaces, typical equipment, acceptance logic, minimum records, hold/witness point considerations, and practical checklists. Practical implementation is reinforced with worked field control notes, sector-specific application guidance, and templates for inspection requests, material reports, NCRs, punch lists, test packages, and handover records. These resources ensure that inspection activities are not only technically rigorous but also adaptable to real project conditions. This edition expands visual learning by adding distinct equipment images, 3D engineering drawings, and equipment/material control-cycle diagrams throughout the handbook. Images are scaled within A4 page limits and inserted without cropping, ensuring complete figures remain visible for training and field reference. The methodology emphasizes risk-based inspection planning, progressive verification, and quality gate management. By linking procedures, checklists, test records, and certificates to clear handover gates, the handbook ensures that no system or deliverable proceeds to the next phase without controlled acceptance evidence. Intended as a professional training resource and project execution manual, the *QA & QC Inspection Handbook* equips teams with structured guidance to strengthen inspection consistency, improve vendor performance visibility, and support safe, complete, and technically compliant delivery to construction and commissioning.

Rp499.000
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QA/QC

TEP-A170-01 CONSTRUCTION QA & QC EPC PROJECT HANDBOOK

The *Construction QA (Quality Assurance)/QC (Quality Control) EPC Project Handbook* provides a structured and comprehensive framework for managing quality across industrial Engineering, Procurement, and Construction (EPC) projects. It is designed to guide both field execution teams and management-level professionals in ensuring that every stage of a project meets technical, regulatory, and contractual requirements. The handbook begins with quality planning and engineering document control, then moves through procurement and vendor quality assurance, material receiving and traceability, and civil works. It covers concrete, structural steel, welding, non-destructive examination (NDE), piping, mechanical equipment, tanks, electrical systems, instrumentation, coating, insulation, fireproofing, and underground utilities. Each discipline is supported by inspection focus tables, technical workflows, and field checklists to ensure consistency and compliance. Practical implementation is reinforced with model records, worked calculations, material specification guidance, equipment preservation controls, and digital QA/QC practices. The handbook also introduces quality KPI concepts and sector-specific application notes, making it adaptable across different industrial contexts. The overall lifecycle addressed is: **Engineering → Procurement → Manufacturing → Delivery → Receiving Inspection → Construction → Inspection & Testing → Mechanical Completion → Pre-Commissioning → Commissioning → Performance Verification → Final Handover.** At each stage, the objective is to establish clear evidence that the work is technically correct, compliant, traceable, tested, and documented before release to the next phase. By integrating planning, discipline-specific controls, and progressive verification, the handbook emphasizes that quality is not a single checkpoint but a continuous process. Readers will gain a practical understanding of how QA/QC supports project success, reduces risks, and ensures that industrial facilities are delivered safely, reliably, and in full compliance with standards.

Rp499.000
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Offshore

TEP-F000-02 OFFSHORE CONSTRUCTION HANDBOOK

The *Offshore Construction Handbook* provides a practical and detailed reference for professionals involved in offshore engineering and construction projects. It offers a structured framework that covers the entire lifecycle of offshore works, from early planning through final handover, emphasizing constructability, readiness, and safe transition into live operation. The handbook begins with project planning, fabrication, and structural assembly, then moves into welding, topsides integration, piping, and mechanical installation. It also addresses electrical, instrumentation, and telecom construction, coating and corrosion protection, heavy lifting operations, SPMT/skidding, loadout, marine transportation, jacket and topsides installation, subsea construction, hook-up, QA/QC, pre-commissioning, commissioning, and final handover. Each stage is explained with practical considerations, highlighting verified weight and center of gravity, temporary conditions, marine and weather constraints, inspection evidence, and material traceability. Practical implementation is reinforced with calculation notes and control metrics, designed to support engineering understanding rather than serve as project-approved calculations. The handbook emphasizes lifecycle constructability, work-front readiness, and completion systemization, ensuring that offshore projects progress in a controlled and traceable manner. Extensive appendices provide reusable tools such as construction checklists, lift and loadout controls, pile-driving records, mechanical-completion forms, inspection and test plan (ITP) guidance, material and equipment registers, maintenance and inspection templates, and a field-photo source register. These resources are intended to support both field execution and management oversight, offering a balance between technical rigor and practical usability. Every technical chapter is enhanced with a unique visual package to aid field learning, review, and communication. By combining structured workflows, inspection focus, and visual aids, the *Offshore Construction Handbook* equips readers with the knowledge to manage offshore construction safely, efficiently, and in compliance with industry standards.

Rp499.000
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Children

TEP-C000-01 CONSTRUCTION HANDBOOK FOR CHILDREN

The *Construction for Children Handbook* is an illustrated English learning guide that introduces young readers to the complete construction life-cycle in a safe, engaging, and educational way. Adapted from the professional TEP-C000 framework, the handbook transforms complex engineering processes into thirty-six child-friendly chapters that highlight teamwork, creativity, and responsibility. The content begins with purpose, teamwork, drawings, and planning, then progresses through site preparation, civil and structural construction, mechanical equipment, piping, electrical and instrumentation systems, safety, quality, testing, handover, materials, digital construction, project controls, environmental care, and careers. The expanded final part follows equipment and materials from design and fabrication through delivery, installation, integrated construction, commissioning, and handover, helping children understand how projects move from concept to completion. Each chapter follows a consistent two-page learning pattern: a Young Builder Diagram, a Big Idea, learning goals, a four-step process, a Safety Star rule, Builder’s Words, a safe Try It! activity, a Quick Check, a Career Corner, and a Remember statement. Six part dividers connect the chapters into a simple story of how projects are discovered, prepared, built, equipped, checked, completed, and improved. The handbook emphasizes that children must never enter active construction areas or attempt professional field activities. Instead, its activities focus on drawing, paper models, observation, organization, and classroom discussion. Real construction requires approved engineering information, competent personnel, permits, risk controls, inspections, and authorized supervision. **Learning Outcome:** Readers will be able to describe the main construction phases, recognize key disciplines and hazards, explain why safety and quality controls are progressive, and identify several engineering and construction careers. By combining visual learning, structured activities, and safety awareness, the *Construction for Children Handbook* inspires curiosity while teaching the foundations of engineering and construction in a way that is safe, accessible, and inspiring for young learners.

Rp499.000
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Proposal

TEP-E000-01 PROPOSAL EPC PROJECT HANDBOOK

The *EPC Proposal Handbook* provides a comprehensive and structured framework for preparing proposals in industrial, oil and gas, petrochemical, power, infrastructure, and process plant projects. It is designed to support proposal managers, discipline engineers, estimators, planners, procurement teams, construction teams, and Client reviewers in understanding the complete proposal logic, from tender review through execution handover. The handbook begins with proposal purpose and scope definition, followed by the executive summary and engineering basis. It then expands into procurement strategy, construction methodology, commissioning approach, project management controls, HSE requirements, quality management, commercial conditions, appendices, and final readiness checks. Each section is explained in detail and supported by workflow graphics, project-photo application sheets, registers, checklists, and governance tools that make the proposal process transparent and traceable. Key themes include proposal compliance, tender clarification, contract baseline protection, interface management, long-lead procurement, constructability validation, field verification, quality documentation, HSE evidence, commissioning turnover, and final closeout support. These themes are presented in a practical format suitable for adaptation to real EPC bids, ensuring that proposals are technically sound, commercially aligned, and compliant with client expectations. The handbook emphasizes lifecycle constructability and readiness, ensuring that proposals demonstrate verified logic, risk awareness, and progressive controls. Calculation notes and control metrics are included to support engineering understanding, though they are not intended as project-approved calculations. Extensive appendices provide reusable tools such as proposal checklists, registers, ITP guidance, material and equipment records, and governance templates. These resources help teams maintain consistency, compliance, and efficiency across different proposal stages. Intended for educational, reference, and professional documentation purposes, the *EPC Proposal Handbook* must always be verified against project-specific requirements before formal contractual use. By combining structured content, visual aids, and practical tools, it equips professionals with a clear roadmap for preparing and managing EPC proposals successfully.

Rp499.000
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Commissioning

TEP-D000-01 COMMISSIONING HANDBOOK

The *Commissioning Handbook* presents a comprehensive framework for managing and executing commissioning activities across EPC, oil and gas, petrochemical, power, industrial, utility, infrastructure, and process plant projects. It is designed to guide professionals through the transition from construction to operations, ensuring safe start-up, reliable performance, and contractual compliance. The handbook begins with systemization and mechanical completion, then progresses through pre-commissioning, commissioning, start-up, performance testing, safety management, discipline interfaces, records, certificates, handover requirements, and lessons learned. Each stage is explained with practical methodology, emphasizing prerequisites, field execution, verification, acceptance evidence, and risk control. Core content includes commissioning organization, planning, scheduling, resource control, risk assessment, SIMOPS, permit-to-work systems, isolation and lockout/tagout (LOTO), cleaning, flushing, drying, leak testing, electrical energization, instrument calibration, loop testing, rotating equipment checks, static equipment preparation, piping commissioning, control system verification, fire and gas readiness, vendor support, and completion dossier management. These topics are presented in a structured format linking procedures, checklists, test records, certificates, and punch-list categories to clear handover gates, ensuring that no system proceeds to the next phase without controlled acceptance evidence. The handbook emphasizes lifecycle readiness and disciplined transfer of care, custody, and control. By integrating safety management, quality documentation, and progressive verification, it ensures that commissioning activities are not isolated tasks but part of a continuous process that validates technical correctness, compliance, and operational reliability. Extensive appendices provide reusable tools such as commissioning checklists, permit templates, test records, and completion forms. These resources support both field execution and management oversight, offering a balance between technical rigor and practical usability. Intended as a professional training and project execution reference, the *Commissioning Handbook* must always be used together with approved project specifications and applicable standards. It equips teams with a clear roadmap for safe start-up, reliable operation, and disciplined project handover.

Rp499.000
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Construction

TEP-C000-01 CONSTRUCTION HANDBOOK

The *Construction Handbook* is an integrated technical and field reference designed to manage industrial construction from initial project preparation through final acceptance and close-out. It consolidates practical requirements for construction planning, site establishment, discipline execution, HSE, QA/QC, inspection, testing, mechanical completion, turnover, commissioning support, project controls, procurement, commercial administration, digital construction, and risk management. The content is organized into twenty-three principal parts and 230 technical chapters, supported by implementation appendices and standardized forms. Core technical disciplines include civil and structural construction, static and rotating equipment installation, tanks and vessels, piping fabrication and installation, electrical systems, instrumentation and control systems, lifting and rigging, construction equipment, pre-commissioning, and commissioning interfaces. Each chapter provides an overview, technical controls, recommended work processes, implementation tables, minimum deliverables, and a field-oriented checklist. The execution framework links construction activities to approved drawings, specifications, method statements, work packages, schedules, resources, material readiness, permits, risk controls, inspection points, and system handover priorities. Safety and quality are emphasized through permit-to-work systems, Job Safety Analysis, isolation, lifting control, excavation safety, working at height, confined-space management, ITP compliance, traceability, nonconformance control, progressive inspection, and documented acceptance. Project integration is achieved by coordinating engineering, procurement, logistics, subcontractors, construction, QA/QC, HSE, commissioning, project controls, and client interfaces through defined responsibilities, phase gates, registers, dashboards, and controlled deliverables. Modern implementation is addressed with BIM and 3D model integration, mobile inspection, RFID and barcode tracking, drone progress monitoring, digital punch lists, construction analytics, cybersecurity, digital handover, contract administration, supply-chain control, earned value management, and structured risk and decision control. The *Construction Handbook* establishes a consistent execution system that improves work-front readiness, protects people and assets, minimizes rework and delay, strengthens traceability, and supports complete, reliable, and auditable handover to commissioning and operations.

Rp499.000
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Procurement

TEP-B000-01 SHOP INSPECTION PROCEDURE

The *Shop Inspection Procedure Handbook* defines a comprehensive framework for managing inspection activities of industrial project deliverables, including static equipment, rotating equipment, piping spools, pipe supports, structural steel, electrical equipment, instrumentation, control panels, skid packages, and associated materials. It establishes a controlled inspection process beginning with early planning and document review, continuing through vendor surveillance, inspection notifications, hold and witness point execution, acceptance decisions, nonconformance control, manufacturing record book (MRB) review, final inspection release, packing, preservation, shipment readiness, and post-delivery interface. The content is structured to help project teams verify compliance with purchase order requirements, approved drawings, engineering specifications, codes, standards, quality plans, inspection and test plans (ITPs), vendor procedures, approved concessions, and agreed acceptance criteria. Risk-based inspection planning is emphasized, ensuring traceability of materials and test evidence, verification of special processes, calibration control, and digital photo documentation. Key elements include quality gate management, MRB completeness, final release certification, and continuous improvement through lessons learned. The methodology links procedures, checklists, test records, certificates, and punch-list categories to clear handover gates, ensuring that no item proceeds to the next phase without controlled acceptance evidence. Practical tools provided include inspection forms, surveillance reports, MRB templates, and vendor performance dashboards. These resources support consistent, auditable, and evidence-based workflows that reduce quality risks, prevent rework, improve vendor visibility, and strengthen delivery assurance. The handbook highlights the importance of integrating inspection with procurement, engineering, and construction teams to ensure that deliverables are technically correct, compliant, traceable, and safely prepared for site handover. Intended as a professional training and project execution reference, the *Shop Inspection Procedure Handbook* equips teams with structured guidance to achieve safe, complete, and technically compliant delivery, supporting reliable construction progress and disciplined project execution.

Rp499.000
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Electrical

TEP-A380-01 ONE LINE DIAGRAM HANDBOOK

The *Electrical One Line Diagram Handbook* provides comprehensive guidance for the development, review, interpretation, and application of electrical one line diagrams in industrial projects. It is designed to help engineers, designers, and project teams represent complex electrical systems in a clear and standardized format, ensuring consistency, accuracy, and reliability across all project phases. The handbook covers the technical information required to represent sources, transformers, switchgear, motor control centers (MCC), distribution boards, UPS systems, DC systems, generators, protection devices, metering devices, cables, feeders, loads, and earthing arrangements. It explains how one line diagrams interface with load lists, cable schedules, equipment lists, electrical design basis, short-circuit studies, relay coordination studies, motor starting studies, vendor drawings, construction records, commissioning dossiers, and as-built documentation. Practical implementation is reinforced with quality control methods for document checking, field verification, and final handover. The handbook includes 3D technical illustrations, engineering figures, flow diagrams, technical tables, checklists, calculation notes, material specification guidance, inspection forms, commissioning forms, and maintenance procedures. These resources provide both technical rigor and practical usability, supporting design, construction, and operations teams. The content is applicable across multiple sectors, including oil and gas, petrochemical, chemical, power plants, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine projects. By applying the guidance in this handbook, project teams can improve design consistency, procurement accuracy, construction readiness, commissioning safety, operational clarity, maintainability, and long-term electrical system reliability. Intended as a professional training resource, design reference, and project execution manual, the *Electrical One Line Diagram Handbook* equips teams with structured guidance and practical tools to ensure that electrical systems are properly represented, verified, and handed over. Its overall objective is to establish a consistent and auditable approach that supports safe, efficient, and reliable industrial project delivery.

Rp499.000
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Instrument

TEP-A370-10 CONCEPTUAL INSTRUMENTATION HANDBOOK

The *Conceptual Instrumentation Handbook Version 1.0* provides a structured framework for instrumentation engineering during concept selection, pre-FEED, FEED, and early EPC phases. It is designed to help engineers, planners, and project teams establish consistent practices, improve traceability, and maximize lifecycle value while clearly defining the limits of conceptual data. The handbook begins with design basis, standards, and project inputs, then develops measurement and control philosophies, control and shutdown valves, and system architectures including DCS, PLC, SCADA, SIS/ESD, and fire and gas systems. It also addresses I/O estimation, networks, cybersecurity, power distribution, instrument air, hazardous area classification, field installation, cabling, control rooms, alarm management, and package interfaces. Practical implementation is reinforced with procurement strategies, constructability considerations, inspection requirements, commissioning support, maintenance planning, and industrial applications. Each chapter is illustrated with original TEP diagrams, worked project examples, screening calculations, and explanatory notes. Supporting tools include material and procurement controls, inspection and test plans (ITPs), inspection forms, loop-check records, field-release forms, commissioning templates, and design-review checklists. The methodology emphasizes prerequisites, execution, verification, acceptance evidence, and risk control for each instrumentation subject. By linking procedures, checklists, test records, and certificates to clear handover gates, the handbook ensures that no system progresses without controlled acceptance evidence. Key themes include consistency in design, clarity of measurement and control philosophies, cybersecurity awareness, constructability validation, and disciplined commissioning preparation. The handbook highlights the importance of integrating instrumentation with other engineering disciplines and project phases to achieve reliable operation and contractual compliance. Intended as a professional training and project execution reference, the *Conceptual Instrumentation Handbook Version 1.0* equips teams with structured guidance, visual learning tools, and practical templates to support safe, efficient, and traceable instrumentation engineering from concept through early EPC.

Rp499.000
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Piping

TEP-A361-01 PIPING ENGINEERING HANDBOOK

This handbook provides a comprehensive and structured reference for the engineering, procurement, fabrication, construction, inspection, testing, commissioning, operation, maintenance, and integrity management of industrial piping systems. It is designed to connect fundamental piping theory with practical project execution so that technical decisions can be traced from process requirements and design conditions through material selection, calculation, layout, stress analysis, procurement, field installation, system turnover, and long-term asset performance. The technical scope is organized into twenty-nine volumes and supporting appendices. Core subjects include international piping codes and standards; metallic, non-metallic, lined, and special materials; pipes, fittings, flanges, gaskets, bolting, valves, supports, and flexible components; thermal expansion and stress analysis; equipment piping; plant layout; steam, condensate, cooling water, fire water, fuel gas, nitrogen, hydrogen, cryogenic, vacuum, slurry, and two-phase services; instrument piping and three-dimensional routing; welding, fabrication, nondestructive examination, pressure testing, cleaning, coating, commissioning, and handover; and the preparation and control of engineering deliverables. The handbook also addresses calculation workflows for pipe wall thickness, pressure drop, velocity, pump NPSH, expansion flexibility, support span, relief headers, surge, branch reinforcement, and test pressure. Case studies and lessons learned translate these methods into refinery, LNG, petrochemical, offshore, FPSO, power, fertilizer, chemical, brownfield, modular, and energy-transition applications. Additional volumes cover digital engineering and model quality assurance, project execution and interdisciplinary coordination, HSE and process safety integration, reliability and asset integrity, cost estimation and construction productivity, environmental performance, hydrogen and CCUS services, and data-driven or AI-assisted piping engineering. The intended outcome is a consistent engineering framework that improves pressure integrity, process safety, equipment protection, maintainability, constructability, inspection readiness, documentation quality, and lifecycle reliability. The handbook is suitable for training, technical review, design development, construction support, commissioning preparation, and operational reference. It is not a substitute for project-specific calculations, competent engineering review, statutory approval, or the governing code and specification. All data, examples, tables, and recommendations must therefore be validated against the approved project basis and current requirements before use.

Rp499.000
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Mechanical

TEP-A330-01 TANK MIXING

The technical scope begins with mixing objectives, industrial applications, engineering workflow, units, codes, and standards. It then develops the fluid-mechanics basis required to understand density, specific gravity, viscosity, rheology, Newtonian and non-Newtonian behavior, and laminar, transitional, and turbulent flow. Mixing theory is addressed through circulation, shear, dispersion, axial, radial and tangential flow, Reynolds number, Froude number, power number, blend time, mixing time, and scale-up criteria. Tank and agitator engineering sections examine vessel geometry, vertical and horizontal configurations, bottom geometry, pressure and vacuum service, baffles, nozzles, internals, propellers, hydrofoils, turbines, paddles, anchors, helical ribbons, and screw mixers. Process-performance topics include heat transfer, mass transfer, gas dispersion, solid suspension, liquid-liquid, gas-liquid, solid-liquid and multiphase mixing, reactor duty, and scale-up from laboratory or pilot equipment to commercial installations. Mechanical coverage includes shaft design, critical speed, bearings, seals, stuffing boxes, gearboxes, couplings, drive assemblies, fatigue, vibration, and failure analysis. Electrical and instrumentation sections address motor selection and sizing, starting methods, VFDs, MCCs, switchgear, cables, earthing, lightning protection, measurement, P&IDs, datasheets, pressure, temperature, flow and level instruments, analyzers, control valves, PLC/DCS/SCADA/SIS interfaces, SIL, loop diagrams, calibration, and functional testing. The handbook also defines practical requirements for process safety, hazardous-area classification, fire and gas protection, relief and venting, emergency shutdown, construction quality, mechanical completion, punch listing, hydrotesting, alignment, vibration testing, FAT, SAT, commissioning, start-up, shutdown, preventive and predictive maintenance, reliability, troubleshooting, document control, drawings, and multidisciplinary EPC case studies. Industrial applications include oil and gas, petrochemical, chemical, LNG, water and wastewater, food, pharmaceutical, mining, and biodiesel facilities. The principal outcome is a traceable method for converting process requirements into verified calculations, coordinated drawings, equipment specifications, inspection records, commissioning evidence, operating limits, and maintenance baselines. The handbook emphasizes that mixing adequacy shall be judged by measurable process performance and lifecycle reliability, not by installed power alone.

Rp499.000
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Civil

TEP-A310-08 FIREPROOFING FOR STEEL STRUCTURES HANDBOOK

This handbook presents a comprehensive technical framework for passive fireproofing of structural steel. It explains fire exposure scenarios, steel thermal response, section factor, critical steel temperature, fire-resistance ratings and the use of tested system data for protection-thickness selection. The document reviews spray-applied cementitious fireproofing, epoxy and thin-film intumescent coatings, fire-resistant boards, concrete or mortar encasement, reinforcement, primers, sealers and topcoats. Requirements for compatibility, durability, weather resistance, chemical exposure, mechanical damage and corrosion control are addressed. Engineering and execution guidance covers design deliverables, fireproofing schedules, standard details, material specifications, procurement control, batch traceability, fabrication, preservation, transport, erection, field application, curing, thickness measurement, adhesion and density testing, defect assessment, repair, field release and commissioning. Worked examples and calculation notes demonstrate the relationship between member geometry, section factor, fire exposure, limiting steel temperature, required duration and certified thickness. Inspection and test plans, records, checklists, maintenance frequencies and industrial-sector application matrices are included for practical project use. The handbook emphasizes that final acceptance shall be based on the approved project specification and the complete certified system, supported by traceable documentation and competent inspection.

Rp499.000
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Project Management

TEP-A130-04 PROJECT S-CURVE PROGRESS PLAN HANDBOOK

This handbook defines the lifecycle of a project S-curve progress plan from scope decomposition through baseline approval, periodic status, earned progress, variance analysis, forecasting, recovery and close-out. It explains planned value, earned value, actual cost, schedule and cost performance indices, quantity-weighted progress, milestone weighting, resource-loaded curves, cost curves and composite physical progress. Worked examples demonstrate monthly and weekly calculations, discipline weighting, engineering deliverable credit, procurement milestone credit, construction installed-quantity measurement, commissioning system completion, forecast-at-completion and recovery scenarios. Templates are provided for a progress measurement basis, weight register, data collection sheet, monthly report, change log, recovery plan and audit checklist. The framework is aligned conceptually with current international project-management and earned-value guidance, including ISO 21508:2026, ISO 21512:2024, ISO 21502:2020 and the PMI Standard for Earned Value Management, subject always to project-specific contractual requirements. • Baseline, actual and forecast S-curves. • WBS/CBS and organizational integration. • Progress evidence and data quality controls. • EVM, productivity, trend and completion forecasting. • Cross-industry application and governance.

Rp499.000
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Project Management

TEP-A130-03 PROJECT MASTER SCHEDULE HANDBOOK

Scope. The handbook covers schedule governance, WBS integration, schedule hierarchy, milestone control, logic and duration development, critical path, float, resource and cost loading, phase integration, baseline control, progress measurement, look-ahead planning, forecasting, recovery, schedule risk, change, delay analysis, reporting, quality assessment, digital integration and closeout. Method. A lifecycle and control-cycle approach is used. Each schedule requirement is translated into defined inputs, execution rules, outputs, records, approval steps and verification checks. Worked examples explain CPM, PERT, weighted progress and earned-value indicators. Key outputs. Typical outputs include the schedule management plan, basis of schedule, integrated Level 1-4 schedules, milestone register, coding dictionary, progress measurement system, baseline package, update package, schedule narrative, risk analysis, recovery plan, time-impact analysis, delay register, quality report and final as-built schedule. Management value. When properly implemented, the framework improves coordination, early warning, decision quality, resource planning, forecast reliability, change management, audit readiness and contractual defensibility.

Rp499.000
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Project Management

TEP-A130-02 PROJECT DEFINITION GENERAL INFORMATION HANDBOOK

This handbook presents a structured framework for preparing, reviewing and approving project definition and general information for industrial, energy, infrastructure and construction projects. It integrates business need, scope, design basis, key project data, stakeholder requirements, site conditions, execution strategy, schedule, cost, risk, HSE, quality, engineering, procurement, construction, commissioning, operations readiness, information management and governance. The methodology uses a lifecycle and gate-based approach supported by controlled registers, responsibility matrices, interface management, assumption closure, risk analysis, decision records, evidence indexing and a measurable project definition maturity assessment. The framework is scalable and can be tailored to greenfield, brownfield, revamp, offshore, onshore, utility, manufacturing and infrastructure projects. Typical outputs include an approved project data sheet, scope statement, battery-limit matrix, stakeholder requirement register, design basis, codes-and-standards register, execution and contracting strategy, WBS, milestone schedule, estimate basis, risk register, HSE and quality requirements, discipline definition deliverables, long-lead strategy, construction and commissioning philosophy, operations-readiness requirements, interface and permit registers, change log, maturity assessment and final approval package. When applied with competent professional review and project-specific requirements, the framework improves decision quality, definition completeness, cost and schedule predictability, interface clarity, authorization readiness and transition into detailed execution. Keywords: project definition, general information, business case, scope, design basis, front-end planning, FEED, project controls, risk, cost estimate, schedule, execution readiness, gate review, EPC, engineering management

Rp499.000
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HSE

TEP-A210-00 GENERAL HEALTH SAFETY AND ENVIRONMENT HANDBOOK

The handbook defines a scalable HSE management architecture for corporate functions, EPC projects, industrial facilities and contractor organizations. It covers context and governance, legal compliance, hazard and environmental risk management, industrial hygiene, occupational safety, process safety, construction, permit-to-work, critical activities, emergency management, environmental controls, occupational health, contractors, design and procurement, transport, incidents, assurance, competence, performance measurement, management of change and lifecycle execution. Method • Plan: determine context, legal requirements, risk, environmental aspects, objectives and resources. • Do: establish controls, competence, communication, operational discipline and emergency capability. • Check: monitor exposure and performance, inspect workplaces, audit systems and investigate events. • Act: review effectiveness, manage change, correct systemic weaknesses and improve maturity. Expected Outcomes Prevention of injury and ill health Effective risk controls, exposure reduction and worker participation Prevention of major accidents Verified process-safety barriers and asset integrity Pollution prevention and resource efficiency Controlled emissions, effluent, waste, spills and consumption Legal and contractual compliance Current register, permits, evaluations and objective evidence Organizational learning Quality investigations, action verification and knowledge sharing Continual improvement Management review decisions, roadmaps and measurable trends

Rp499.000
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Project Management

TEP-A130-01 PROJECT EXECUTION PLAN

This document presents an integrated Project Execution Plan framework for managing EPC and construction projects from initiation through closeout. It defines the management practices required to align scope, schedule, cost, quality, HSE, engineering, procurement, construction, commissioning, documentation, interfaces, reporting, risk control and stakeholder communication into one coordinated execution system. Scope Summary. The handbook covers project governance, organization, project controls, detailed engineering execution, procurement management, vendor coordination, construction work packaging, quality surveillance, HSE execution, commissioning readiness, turnover, closeout, audit readiness and continuous improvement. Methodology. The document applies a stage-gate and lifecycle-based approach supported by deliverable control, responsibility matrices, interface registers, risk registers, look-ahead planning, progress measurement, management reviews, change control and structured handover records. Key Outputs. Typical outputs include approved project procedures, execution schedules, engineering deliverable registers, procurement status reports, construction progress records, inspection and test records, HSE performance reports, commissioning dossiers, turnover packages and final closeout documentation. Management Value. The handbook supports consistent decision making, cross-discipline coordination, transparent reporting, predictable delivery, improved safety performance, better control of change and stronger readiness for client acceptance and operational handover. Result. When implemented with project-specific procedures and competent supervision, the framework provides a practical basis for disciplined project execution, performance monitoring, risk reduction and reliable completion of EPC and construction projects. Keywords: project execution plan, EPC management, engineering management, procurement, construction, HSE, quality, project controls, commissioning, turnover, closeout.

Rp499.000
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Mechanical

TEP-A350-03 FLARE STACK HANDBOOK

This handbook presents a systematic approach to flare-stack systems used for the controlled disposal and combustion of relief and depressurization gases. It covers system selection, relief-load definition, flare-header hydraulics, knockout drums, seal systems, stack configuration, radiation, dispersion, pilot and ignition systems, flare tips, assist utilities, smoke control, noise, materials, structural design, piping stress, instrumentation, electrical interfaces, hazardous-area requirements and functional safety. Project execution topics include design deliverables, technical bid evaluation, vendor data, material traceability, welding, NDE, fabrication, transport, erection, construction inspection, pre-commissioning, start-up and performance acceptance. Operating topics include monitoring, troubleshooting, emissions reporting, inspection, maintenance, reliability and management of change. The handbook contains worked screening calculations and controlled templates for datasheets, material specifications, vendor document registers, inspection and test plans, shop inspection, construction, commissioning, operation, maintenance, HAZOP and industrial-sector applications. The objective is to improve technical consistency, interdisciplinary coordination, traceability and safe decision-making across the flare-system lifecycle.  

Rp499.000
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Mechanical

TEP-A350-02 FURNACE HANDBOOK

This handbook provides a comprehensive professional reference for the engineering and lifecycle management of industrial furnaces and fired heaters. Coverage includes heat-duty definition, fuel and combustion balance, radiant and convection design, burners, draft systems, refractory, coils, materials, structures, instrumentation, protective interlocks, environmental control, fabrication, inspection, construction, commissioning, operation and maintenance. The document includes practical calculation notes, technical control tables, inspection checklists, common-defect guidance, material and procurement controls, ITP concepts, commissioning forms and maintenance templates. It is applicable to oil and gas, refinery, petrochemical, chemical, power, water and wastewater, mining, manufacturing, offshore, infrastructure and marine project environments, subject to project-specific engineering review. The expanded lifecycle chapter provides deeper equipment- and material-specific controls for design, shop fabrication, packing and transportation, site installation, commissioning, handover and reliability baselining. Chapters 1-6 include dedicated field visual reference pages that connect the design basis, thermal calculations, equipment geometry and radiant-section controls to recognizable installation and operating conditions. The central objective is to support safe, efficient and maintainable furnace systems by connecting design assumptions to fabrication evidence, field installation, operating limits, inspection records and reliability decisions throughout the asset lifecycle.

Rp499.000
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Mechanical

TEP-A330-03 TOWER ENGINEERING HANDBOOK

This handbook provides an integrated reference for industrial tower engineering from concept selection through decommissioning. It addresses phase equilibrium, balances, distillation, absorption, stripping, trays, packing, distributors, hydraulics, diameter and height, feed devices, demisters, pressure-vessel design, wind and seismic response, materials, corrosion, fabrication, NDE, instrumentation, process safety, relief and vacuum protection, procurement, transportation, erection, commissioning, operation, inspection, maintenance and industrial applications. Industrial towers are among the most integrated items in a process facility. Their performance depends on thermodynamics, phase equilibrium, internal vapor and liquid traffic, trays or packing, heat exchange, pressure control, mechanical integrity, materials, fabrication quality, construction discipline and operating competence. This handbook is structured as a lifecycle reference. It begins with separation fundamentals and technology selection, develops process and hydraulic design, then addresses mechanical configuration, materials, fabrication, inspection, automation, process safety, procurement, transportation, installation, commissioning, operation, maintenance and sector applications. The intended readers include process, mechanical, piping, civil, electrical and instrumentation engineers; project and construction teams; QA/QC inspectors; commissioning engineers; operators; maintenance personnel; technical trainers and engineering students. Each chapter combines engineering context, workflow, critical checks, deliverables and a technical reference table.

Rp499.000
Thumbnail for TEP-A227-01 ENGINEERING PROCEDURE FOR FIRE PROTECTION HANDBOOK
Process

TEP-A227-01 ENGINEERING PROCEDURE FOR FIRE PROTECTION HANDBOOK

This handbook provides an integrated engineering procedure for active and passive fire protection. It covers fire hazard assessment, fire-water demand, storage, pumps, distribution mains, hydrants, monitors, sprinklers, deluge, foam, water mist, clean agents, carbon dioxide, chemical suppression, portable extinguishers, detection and alarm, fire and gas logic, passive fire protection, smoke control, electrical and instrumentation interfaces, 3D coordination, fabrication, installation, commissioning, maintenance and reliability. The technical approach is based on four principles: protection shall be matched to credible fire scenarios; system capacity shall be demonstrated by calculation; installation shall preserve the approved design and listed or certified equipment requirements; and operational readiness shall be demonstrated by documented inspection, testing, commissioning and maintenance. Worked examples illustrate hydraulic head, water storage, pump power, nozzle or sprinkler discharge, foam concentrate quantity and inspection planning. The examples are deliberately transparent so that assumptions, unit consistency and safety margins can be checked. Final project values remain subject to the governing code, manufacturer data and AHJ acceptance. The handbook also addresses procurement and vendor document control, material traceability, factory acceptance, preservation and shipping, construction quality, field release, functional testing, turnover dossiers, impairment control, preventive maintenance and sector-specific application. It is structured as a professional A4 master suitable for project adaptation and printing.

Rp499.000
Thumbnail for TEP-A225-05 PREPARATION OF PROCESS OPERATION DIAGRAM HANDBOOK
Process

TEP-A225-05 PREPARATION OF PROCESS OPERATION DIAGRAM HANDBOOK

This handbook defines a practical framework for preparing Process Operation Diagrams from approved process design inputs. It explains the role of PODs in the document hierarchy; establishes requirements for source-data validation, symbols, equipment, streams, instrumentation, operating modes, alarms, trips, relief and drain systems; and demonstrates typical applications for separation, storage, heat transfer, gas handling, water treatment, mining and offshore facilities. Technical content includes basic equations, worked examples, material and procurement controls, ITP and inspection concepts, commissioning and handover forms, maintenance frequencies, reliability methods, management of change and industrial application matrices. The examples are intentionally generic and must be adapted to the specific project design basis and safety requirements. The expected result is a controlled, operator-oriented diagram that is technically traceable, visually clear, consistent with the PFD and P&ID, aligned with control and safeguarding documents, and maintained through construction, commissioning and operations.

Rp499.000
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Process

TEP-A224-03 WINTERIZATION CONDENSATE RECOVERY SYSTEM HANDBOOK

WINTERIZATION CONDENSATE RECOVERY SYSTEM provides a professional framework for the design and implementation of winterization and condensate recovery systems across Oil & Gas, Petrochemical, Chemical, Power Plant, Water & Wastewater, Mining, Manufacturing, Offshore, Infrastructure and Marine facilities. The handbook covers ambient design cases, freezing and hydrate risks, insulation, electric and steam heat tracing, glycol heating, instrument protection, vessels, tanks, rotating equipment, flare and drain systems, steam condensate collection, flash steam recovery, receivers, pumps, polishing, materials, fabrication, shipping, construction, commissioning, control, operation, reliability, HSE and industrial applications. Calculation notes address heat loss, tracing output, glycol flow, flash fraction, receiver and pump sizing, warm-up energy, availability and recovery efficiency. A consistent quality pathway is applied from design basis through procurement, ITP, inspection forms, field release, commissioning and maintenance. The goal is a winter-ready installation with clear evidence that thermal protection, drainage, control and condensate recovery perform as intended.

Rp499.000
Thumbnail for TEP-A222-03 PROCESS ENGINEERING TECHNICAL DESIGN HANDBOOK
Process

TEP-A222-03 PROCESS ENGINEERING TECHNICAL DESIGN HANDBOOK

Process Engineering Technical Design Handbook provides a comprehensive and practical technical reference for the development, review, implementation, and lifecycle management of process engineering designs for industrial facilities. The handbook establishes an integrated engineering framework covering the progression from the initial Basis of Design and design criteria through detailed process engineering, procurement support, fabrication, construction, commissioning, start-up, operation, maintenance, and continuous performance improvement. The handbook addresses the fundamental process engineering activities required to develop safe, reliable, operable, maintainable, and technically sound facilities. Major subjects include process design data and deliverables, Process Flow Diagrams (PFD), Piping and Instrumentation Diagrams (P&ID), material and energy balances, thermodynamics and phase equilibrium, process simulation and optimization, hydraulic calculations, line sizing, equipment sizing, separation systems, distillation, absorption, reactors, heat-transfer systems, rotating equipment, piping interfaces, instrumentation, control, and automation. Particular emphasis is placed on process safety and safeguarding. Relief and depressuring systems, flare and vent systems, HAZID, HAZOP, LOPA, SIL, material compatibility, corrosion control, utility systems, offsite facilities, layout development, 3D model review, and constructability are incorporated as integral elements of the engineering lifecycle rather than isolated design activities. The handbook also extends process engineering responsibilities into procurement, vendor data review, quality control, fabrication, installation, inspection, field release, pre-commissioning, commissioning, start-up, operation, maintenance, reliability, and performance improvement. Supporting appendices provide worked calculation examples, material specifications and datasheets, Inspection and Test Plans (ITP), field-release and punch-list forms, commissioning checklists, maintenance guidance, standard drawings, engineering deliverable registers, design review gates, Management of Change (MOC), digital engineering requirements, vendor inspection, FAT/SAT, logistics, preservation, performance guarantees, acceptance criteria, and lessons learned. Through this lifecycle-based approach, the handbook is intended to support process engineers, multidisciplinary engineering teams, project personnel, construction and commissioning teams, operators, inspectors, and technical reviewers in achieving consistent engineering quality and disciplined technical decision-making throughout a project.

Rp499.000
Thumbnail for TEP-A223-05 PERFORMANCE GUARANTEE PROCESS ENGINEERING HANDBOOK
Process

TEP-A223-05 PERFORMANCE GUARANTEE PROCESS ENGINEERING HANDBOOK

This handbook presents a structured methodology for developing, executing, and closing process performance guarantees. It covers guarantee envelopes, mass and energy balance, equipment performance, instrumentation, sampling, uncertainty, data reconciliation, normalization, test execution, industrial applications, inspection records, procurement controls, maintenance, and contractual closeout. Worked examples and templates are included to support practical implementation across oil and gas, petrochemical, chemical, power, water, mining, manufacturing, offshore, infrastructure, and marine projects.

Rp499.000
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Process

TEP-A224-02 GUIDE TO VALVE SELECTION HANDBOOK

This handbook provides a comprehensive engineering reference for the systematic selection, specification, application, verification, procurement, installation, commissioning, operation, and lifecycle management of industrial valves. It establishes an integrated approach to valve engineering by considering process conditions, functional requirements, pressure–temperature ratings, flow characteristics, material compatibility, sealing performance, actuation requirements, maintainability, reliability, safety, environmental performance, and total lifecycle considerations. The handbook addresses the principal valve types used in industrial facilities, including gate, globe, ball, butterfly, plug, check, diaphragm, pinch, sanitary, knife-gate, slurry-service, control, pressure-relief, safety, emergency-shutdown, and severe-service valves. Special operating environments such as cryogenic service, corrosive service, abrasive and erosive fluids, slurry systems, sour and hydrogen-containing service, high-temperature steam, refrigeration, fugitive-emission control, fire-safe applications, cavitation, flashing, and noise are also incorporated into the selection methodology. Engineering guidance extends beyond valve type selection to include control-valve sizing fundamentals, trim and flow characteristics, positioners and instrumentation, pneumatic, hydraulic and electric actuators, motor-operated valve torque and thrust requirements, end connections, pressure classes, construction materials, soft seats, packing, gaskets, welding, overlays, hardfacing, piping integration, accessibility, fabrication, inspection, pressure testing, FAT, SAT, preservation, transportation, installation, pre-commissioning, commissioning, operation, maintenance, reliability and failure analysis. The handbook structure reflects these subjects through forty technical chapters and supporting appendices.

Rp499.000
Thumbnail for TEP-A222-01 BASIC ENGINEERING DESIGN DATA HANDBOOK
Process

TEP-A222-01 BASIC ENGINEERING DESIGN DATA HANDBOOK

BASIC ENGINEERING DESIGN DATA HANDBOOK provides a complete professional framework for preparing, reviewing and controlling Basic Engineering Design Data for industrial and infrastructure projects. The handbook addresses Oil & Gas, Petrochemical, Chemical, Power Plant, Water & Wastewater, Mining, Manufacturing, Offshore and Infrastructure / Marine applications. Core Coverage • Project definition, data governance, applicable standards, units, coordinates and site/environmental conditions. • Process design basis, operating cases, heat and material balance, PFD/P&ID data, design conditions and utility systems. • Equipment, piping, metallurgy, instrumentation, electrical, civil/structural, HSE and fire-protection design data. • Constructability, fabrication, procurement, logistics, field installation, mechanical completion, commissioning and handover. • Calculation notes, worked examples, material controls, ITPs, inspection forms, maintenance frequencies, sector matrices and final release checklists.

Rp499.000
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Process

TEP-A221-04 VERIFICATION PROCEDURE FOR PROCESS HANDBOOK

VERIFICATION PROCEDURE FOR PROCESS defines a complete verification procedure for process engineering deliverables. The handbook covers governance, planning, design inputs, process criteria, heat and material balance, simulation, PFDs, P&IDs, equipment sizing, hydraulics, relief and flare systems, process control, HAZOP, utilities, materials, datasheets, vendor documents, interdisciplinary interfaces, 3D model review, construction, pre-commissioning, commissioning, management of change, quality closeout and lifecycle reliability. The procedure is organized around four evidence classes: verified technical basis, checked calculation or document, resolved findings, and formal approval. Technical tables, inspection and commissioning forms, procurement controls, maintenance frequencies and sector application matrices are provided in the appendices.

Rp499.000
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Process

TEP-A221-03 BASIC DESIGN PACKAGE HANDBOOK

BASIC DESIGN PACKAGE HANDBOOK defines a comprehensive framework for preparing, checking, coordinating, approving and handing over a multidisciplinary Basic Design Package. The handbook contains 34 technical chapters and six implementation appendices covering the full engineering and execution lifecycle. The document integrates design basis, process definition, HSE, facility layout, equipment, mechanical, piping, civil, architectural, electrical, instrumentation, telecommunications, fire protection, utilities, water, marine, digital engineering, calculations, materials, procurement, constructability, fabrication, logistics, construction, commissioning, reliability, document control and quality assurance. Every chapter includes a unique 3D engineering scene, 3D lifecycle workflow and photo-realistic field visualization; a compact calculation note and worked example; input–action–output–accountability mapping; verification checkpoints; risk controls; and an industrial-sector application note. The final package is intended to establish traceable readiness for detailed design, procurement, construction and commissioning while preserving assumptions, interfaces, residual risks, approvals and the evidence needed for audit and handover.

Rp499.000
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Process

TEP-A221-02 PROCESS DESIGN PHILOSOPHY HANDBOOK

Process Design Philosophy Handbook Version 1.0 defines a comprehensive and auditable framework for process engineering from design basis through operations handover. It establishes how feed and product envelopes, process cases, thermodynamics, balances, margins, equipment sizing, hydraulics, relief, control, functional safety, materials, utilities, storage, environmental performance and layout shall be developed and verified. The handbook also extends beyond calculation into procurement, vendor data, fabrication, inspection, preservation, transportation, construction, systemization, commissioning, performance testing, operability, reliability and maintenance. It includes worked examples, technical tables, checklists, material and equipment lists, inspection and release records, commissioning forms, maintenance frequencies and an industrial sector application matrix.

Rp499.000
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Process

TEP-A221-01 SCOPE OF BASIC ENGINEERING HANDBOOK

This handbook defines a comprehensive scope of basic engineering for industrial and infrastructure projects. The scope begins with the approved concept and design basis, then develops coordinated discipline deliverables, engineering calculations, specifications, project controls, assurance activities, procurement support, construction interfaces, commissioning requirements, and lifecycle data. The objective is to create a design definition that is sufficiently mature for investment decisions, detailed engineering, long-lead procurement, permitting, cost and schedule control, and safe execution.

Rp499.000
Thumbnail for TEP-A220-09 PROCESS OVERVIEW AND PREPARATION HANDBOOK
Process

TEP-A220-09 PROCESS OVERVIEW AND PREPARATION HANDBOOK

This handbook defines a professional method for Process Overview and Preparation across the complete EPC and operating lifecycle. It establishes requirements for project objectives, battery limits, data collection, field verification, feed/product/utility definition, site and environmental inputs, design basis development, simulation, heat and material balance, BFD/PFD/P&ID preparation, equipment and piping process data, utilities, relief/flare/drain systems, control, process safety, materials, layout, procurement, fabrication, logistics, construction, commissioning and reliability preparation. Attribute Handbook Requirement Document type Controlled engineering handbook, execution procedure and training reference Lifecycle Concept selection through operating support and modification Primary controls Design basis, verified calculations, interface review, change control and handover Safety focus Containment, safeguarding, relief, operating limits, construction and startup readiness Quality evidence Check records, ITPs, inspection forms, release documents and commissioning records Industries Oil & Gas, Petrochemical, Chemical, Power, Water, Mining, Manufacturing, Offshore and Marine

Rp499.000
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Process

TEP-A220-08 PROCESS ENGINEERING TOOL HANDBOOK

This handbook presents an integrated framework for selecting and applying process engineering tools throughout the project lifecycle. It covers design basis management, thermodynamics, simulation, heat and material balance, PFD and P&ID development, hydraulic calculations, heat exchanger design, relief and flare systems, equipment sizing, dynamic simulation, process safety, consequence modeling, flow assurance, energy optimization, materials, procurement, construction, commissioning, maintenance, reliability, and quality control. Practical elements include calculation-note requirements, worked examples, material specifications, procurement controls, inspection and test plans, field release records, commissioning forms, maintenance frequencies, inspection records, technical flow diagrams, and industrial application matrices. The intended result is a consistent, auditable, and professional engineering workflow suitable for Oil & Gas, Petrochemical, Chemical, Power Plant, Water & Wastewater, Mining, Manufacturing, Offshore, and Infrastructure / Marine applications.

Rp499.000
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Process

TEP-A220-07 JOB INSTRUCTION FOR PROCESS ENGINEERING HANDBOOK

JOB INSTRUCTION FOR PROCESS ENGINEERING defines a comprehensive job-instruction system for process engineering across concept selection, basic engineering, front-end engineering design, detailed engineering, procurement support, construction, commissioning, and operations support. The handbook explains how design inputs are converted into heat and material balances, process flow diagrams, piping and instrumentation diagrams, equipment specifications, hydraulic calculations, relief-system design, process-control requirements, safety studies, technical bid evaluations, inspection records, and final handover dossiers.

Rp499.000
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Process

TEP-A220-06 HEAT TRANSFER RESEARCH INCORPORATION (HTRI) HANDBOOK

This handbook defines an end-to-end method for heat-transfer engineering using research-based approaches and current commercial software within a controlled workflow. It covers data preparation, properties, fundamentals, shell-and-tube rating/simulation/design, TEMA geometry, shellside/tubeside methods, condensers, reboilers, air coolers, hairpin and compact exchangers, vibration, fired heaters, networks, digital twins, procurement, inspection, commissioning and troubleshooting. Appendices provide calculation-note and input templates, worked examples, geometry/vibration checklists, monitoring registers, technical bid evaluation, ITP, commissioning forms, troubleshooting logic, industrial applications, standards framework, glossary and source/trademark register. Governing principles are traceability, applicability, proportional rigor, independent verification, controlled geometry, transparent uncertainty and lifecycle feedback.

Rp499.000
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Process

TEP-A220-05 PROCESS ENGINEERING MANUAL

This manual defines a complete Process Engineering framework for concept selection, FEED, detailed engineering, procurement support, construction, pre-commissioning, commissioning, start-up, operating support and brownfield modification. It covers design-basis development, thermodynamics, simulation, heat and material balance, process diagrams, equipment sizing, hydraulics, heat transfer, separation, reaction engineering, utilities, relief and flare systems, control, process safety, environmental engineering, materials, energy optimization, datasheets, vendor engineering, field support, reliability and digital handover.

Rp499.000
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Process

TEP-A220-04 VALUE PROCESS ENGINEERING HANDBOOK

This handbook presents a complete Value Process Engineering framework for identifying, developing, evaluating, implementing, and sustaining value-improvement opportunities across the project and asset life cycle. The approach combines function analysis, FAST modelling, cost/worth analysis, multi-criteria decision analysis, process simulation, heat and utility integration, equipment standardization, safety and environmental review, RAM analysis, constructability, life-cycle costing, procurement strategy, commissioning readiness, and benefits realization. The handbook contains twenty-two technical chapters and eleven appendices. Each chapter includes design intent, required information, technical method, calculation notes, a worked example, lifecycle controls, a unique 3D engineering schematic, a field application image, inspection and maintenance requirements, and an industrial-sector application note. The appendices provide editable-style forms and matrices for workshops, calculations, inspections, commissioning, benefits tracking, and standards management.

Rp499.000
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Process

TEP-A220-01 GENERAL PROCESS STANDARD HANDBOOK

This handbook defines a complete General Process Standard for opportunity framing, conceptual design, FEED, detailed engineering, procurement, construction support, pre-commissioning, commissioning, start-up, performance testing, operating support and modification. It establishes minimum requirements for the Process Design Basis, feed and product data, design cases, simulation, heat and material balance, BFD/PFD/P&ID preparation, equipment sizing, hydraulics, heat transfer, utilities, pressure relief, flare and drain systems, process control, safeguarding, process safety, materials, environmental data, datasheets, vendor review, quality control and handover. Twenty-eight chapters provide the governing requirements, execution steps, engineering criteria, review checklists, 3D technical drawings and field-implementation controls. Sixteen appendices provide reusable registers, calculation-note templates, review forms, HAZOP/LOPA worksheets, procurement checks, inspection and commissioning records, sector matrices and approval forms.

Rp499.000
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HSE

TEP-A215-01 HSE RISK MANAGEMENT HANDBOOK

This handbook presents an integrated HSE risk management system based on established risk-management principles, structured assessment techniques and verifiable field controls. It defines governance, risk criteria, hazard identification, qualitative and quantitative assessment, ALARP demonstration, hierarchy of controls, critical control management, risk registers, change management, simultaneous operations, lifecycle integration, emergency risk, occupational health, environmental risk, human factors, contractor assurance and continual improvement. The handbook includes 51 chapters and 27 appendices. Practical tools include a 5 x 5 risk matrix, HSE risk register, JSA/TRA, HAZID and HAZOP worksheets, Bow-Tie and LOPA templates, critical-control verification form, management-of-change form, SIMOPS interface matrix, environmental and occupational-health registers, emergency scenario assessment, KPI dashboard, audit checklist, competence matrix, legal register and final document-release checklist. Intended Users • Project directors, project managers, HSE managers and risk owners. • Engineering, construction, commissioning, operations and maintenance leaders. • HSE engineers, process-safety specialists, industrial hygienists and environmental professionals. • Contractors, subcontractors, vendors, supervisors, permit authorities and field work teams. • Auditors, assurance personnel, client representatives and document controllers.

Rp499.000
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HSE

TEP-A214-01 HSE ENGINEERING ECONOMICS HANDBOOK

HSE Engineering Economics Handbook Version 1.0 presents an integrated method for evaluating HSE investments across concept development, design, procurement, fabrication, delivery, construction, installation, commissioning, operation, maintenance, modification, and decommissioning. The handbook covers CAPEX and OPEX planning, cost classification, life-cycle cost analysis, discounted cash flow, net present value, equivalent annual cost, internal rate of return, benefit-cost ratio, payback, expected annual loss, ALARP and gross-disproportion considerations, reliability economics, environmental cost, uncertainty analysis, portfolio selection, and benefit realization. Worked examples address gas detection, firewater, emergency shutdown, spill containment, machine guarding, condition monitoring, wastewater reuse, fire and gas modernization, HSE-critical procurement, governance, inspection records, and implementation programs. Appendices provide formula sheets, cost-estimate templates, ITP and inspection forms, field-release and commissioning records, maintenance procedures, an industrial application matrix, references, and a glossary. The objective is to enable decisions that protect people and assets, control total lifecycle cost, reduce risk, improve reliability, support environmental stewardship, and deliver measurable long-term value

Rp499.000
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HSE

TEP-A213-07 HSE ADMINISTRATIVE HANDBOOK

HSE Administrative Handbook Version 1.0 provides a structured framework for controlling HSE information and evidence across the full asset and project lifecycle. It integrates management-system principles with practical registers, forms, workflows, role assignments, review methods, retention rules, and performance indicators. The handbook supports organizations that need consistent HSE governance across company personnel, contractors, vendors, and multiple industrial sectors. It emphasizes traceability, risk-based approval, legal and contractual compliance, worker participation, confidentiality, digital data integrity, objective evidence, and continual improvement. Technical tools include worked KPI calculations, risk scoring guidance, inspection and test plan controls, sector application matrices, implementation roadmaps, and templates for legal registers, training, permits, incident management, audits, action tracking, environmental monitoring, emergency drills, management of change, closeout, and records retention.

Rp499.000
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HSE

TEP-A213-06 HSE ENGINEERING HANDBOOK

This handbook presents an integrated HSE engineering framework for oil and gas, petrochemical, refinery, chemical, power, utility, infrastructure and other industrial projects. It translates hazards, legal duties, client expectations and recognized engineering practices into controlled studies, design requirements, performance standards, procurement clauses, inspection and testing evidence, and handover records. The framework uses lifecycle risk management and the hierarchy of controls. Broad HAZID is followed, where applicable, by HAZOP, LOPA and SIL determination, QRA, ALARP demonstration, design safety reviews and verification of safety-critical elements. Occupational health and environmental engineering are treated as design disciplines rather than downstream compliance checks. Construction and commissioning hazards are anticipated through design risk transfer, temporary-works control, isolation design, SIMOPS planning and pre-startup safety review. The handbook emphasizes traceability: each control should be linked to a hazard or obligation, represented in approved design information, verified by objective evidence and transferred with its residual risk, inspection requirement and operating constraint. The 22 appendices provide practical templates for this controlled information thread.

Rp499.000
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HSE

TEP-A213-05 SUBSTITUTING A HAZARD HANDBOOK

SUBSTITUTING A HAZARD is a lifecycle handbook for replacing hazardous materials, equipment, processes, and work methods with safer alternatives in industrial facilities. It combines occupational safety, process safety, engineering design, industrial hygiene, environmental management, quality, procurement, construction, commissioning, maintenance, reliability, and management-system controls. SCOPE METHOD OUTPUT Oil & Gas, Petrochemical, Chemical, Power Plant, Water & Wastewater, Mining, Manufacturing, Offshore, and Infrastructure / Marine. Hazard baseline, alternatives screening, technical validation, calculation, controlled change, verification, and performance monitoring. Approved safer solution supported by specifications, records, training, field release, maintenance, and measurable improvement.

Rp499.000
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HSE

TEP-A213-04 HAZARD ELIMINATION HANDBOOK

This handbook presents a complete hazard-elimination framework aligned with the hierarchy of controls and the principles of inherently safer design. It integrates source–path–receptor analysis, HIRA/JSA, concept selection, process safety, mechanical and electrical safety, chemical substitution, work-at-height elimination, confined-space avoidance, lifting and excavation alternatives, ergonomics, contractor control, management of change, commissioning and operational improvement. The method requires teams to identify the physical source of harm, generate alternatives that remove the source or task, assess lifecycle risk transfer, select the safest practicable design, implement through controlled engineering and procurement, and verify with objective field evidence. It includes practical checklists, forms, worked examples, KPI definitions and an industrial-sector application matrix.

Rp499.000
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HSE

TEP-A213-03 HSE EVALUATION HANDBOOK

This handbook describes a complete method for evaluating HSE management-system design, implementation and effectiveness. It begins with evaluation governance, ethics, competence, program planning and legal compliance; proceeds through leadership, risk assessment, critical controls, contractor management, design HSE, occupational health, environmental performance, emergency readiness, construction, commissioning and process safety; and concludes with data analysis, corrective action, management review, industrial-sector adaptation and integrated assurance planning. Detailed appendices provide reusable models for scoring, maturity, audit planning, interviews, document review, field observation, legal compliance, contractor evaluation, emergency drill evaluation, incident investigation review, KPI calculations, corrective action, reporting and management review. The handbook is designed for multi-sector use in oil and gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, marine and infrastructure projects. Its central principle is that evaluation must test actual control performance and drive timely improvement rather than merely count completed forms.

Rp499.000
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HSE

TEP-A213-02 HSE SCOPE OF WORK HANDBOOK

This handbook defines a complete HSE scope of work for project contracting. It establishes scope boundaries, legal and client interfaces, governance, organization, staffing, deliverables, design HSE studies, occupational health, environmental management, contractor control, procurement specifications, fabrication and logistics requirements, field high-risk work controls, emergency response, assurance, incident learning, commissioning and final closeout. Each technical chapter includes the purpose, minimum contractual controls, required deliverables, responsible parties, review and hold points, acceptance evidence, scope exclusions and records. Appendices provide reusable matrices, registers, worked examples, forms, calculation notes, KPI definitions, equipment specifications, inspection frequencies and model commercial clauses. The handbook emphasizes objective acceptance, critical-control verification, documented interface management and lifecycle transfer of residual risk. It is designed to help contracting parties avoid ambiguous HSE obligations while preserving compliance, worker participation and safe execution.

Rp499.000
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HSE

TEP-A213-01 HEALTH SAFETY ENVIRONMENT SPECIFICATION HANDBOOK

This handbook defines a comprehensive HSE specification across twenty-six technical chapters and eighteen appendices. It covers policy and governance, hazard identification, permit-to-work, energy isolation, PPE, work at height, lifting, confined space, hot work, excavation, environmental management, emergency response, inspections, contractor management, process safety, hazardous materials, occupational health, transport, security, commissioning, electrical safety, fire protection, pressure safety, first aid, wellbeing, SIMOPS, records, management review, and full project-lifecycle implementation. Each chapter includes practical acceptance criteria and evidence requirements. Calculation notes illustrate how HSE performance and technical controls may be evaluated, while the appendices provide structured templates for HIRADC, JSA, permits, LOTO, inspections, audits, incident investigation, CAPA, environmental monitoring, training, equipment registers, emergency drills, commissioning, maintenance, KPIs, retention, and final document QA. The intended result is a consistent, auditable, and field-verifiable HSE management approach that supports safe engineering and construction delivery across multiple industrial sectors.

Rp499.000
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HSE

TEP-A212-03 HSE WORK PROCEDURE HANDBOOK

This handbook provides an integrated set of safe work procedures covering planning, authorization, execution, emergency response, verification and closeout. It addresses general site controls and high-risk work including hot work, working at height, scaffolding, lifting, confined space, excavation, electrical isolation, line breaking, pressure testing, NDT, chemical handling, mobile equipment, transport, marine work, commissioning and shutdown activities. The procedure model requires task-specific risk assessment, competent roles, defined critical controls, objective evidence and stop-work response when conditions change. Appendices provide reusable permits, checklists, certificates, inspection forms, registers, KPI calculation notes and document-control records. The handbook is intended for multi-sector use in oil and gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, marine and infrastructure projects. It supports ISO 45001, ISO 14001, Indonesian SMK3 and project-specific HSE requirements but remains subordinate to current law, permit and approved client obligations.

Rp499.000
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HSE

TEP-A212-02 HSE SYSTEM PROCEDURE HANDBOOK

This handbook describes a complete HSE system procedure for managing occupational health, safety, process-safety interfaces and environmental risk. It begins with system scope, policy, legal compliance, organization, planning and risk assessment; proceeds through operational controls such as permit to work, isolation, contractor management, design HSE, occupational health, emergency response and high-risk work; and concludes with assurance, performance measurement, management review and document control. Detailed appendices provide reusable templates for HSE policy, HIRA/JSA, environmental aspect assessment, permit to work, lockout/tagout, toolbox talks, inspections, incident investigation, emergency drills, training matrices, KPI calculations, contractor evaluation and audit. Worked examples demonstrate risk scoring and performance calculations. The handbook is designed for multi-sector application in oil and gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, marine and infrastructure projects. It emphasizes lifecycle risk reduction, worker participation, critical-control verification and evidence-based continual improvement.

Rp499.000
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HSE

TEP-A211-03 ENVIRONMENT RISK MANAGEMENT IMPLEMENTATION HANDBOOK

This handbook defines an integrated method for implementing environmental risk management from concept selection through final closure. It describes how organizations establish context, identify environmental aspects, assess source-pathway-receptor scenarios, evaluate significance, select controls using the hierarchy of controls, assign accountable owners, verify field implementation and preserve audit-ready evidence. Technical chapters address emissions, water, stormwater, soil, groundwater, waste, hazardous materials, spills, nuisance, biodiversity, climate resilience, community interface, monitoring, environmental incidents, assurance, digital reporting, commissioning and decommissioning. Calculation notes and worked examples demonstrate significance scoring, stormwater volume screening, containment sizing, noise combination and performance indicators. Appendices provide reusable registers, matrices, inspection forms, monitoring plans, incident forms, contractor evaluations, handover checklists and sector application guidance. The framework is intended for oil and gas, petrochemical, chemical, power, water and wastewater, mining, manufacturing, offshore, marine and infrastructure projects.

Rp499.000
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HSE

TEP-A211-01 OFFICE HEALTH AND SAFETY PLAN HANDBOOK

Office Health and Safety Plan Handbook Version 1.0 presents an integrated framework for managing occupational health and safety in office environments. The handbook combines management-system requirements with practical controls for office layout, ergonomics, housekeeping, manual handling, storage, electrical safety, fire prevention, emergency preparedness, first aid, indoor air quality, lighting, noise, thermal comfort, hygiene, psychosocial risks, security, pantry activities, hybrid work, technical rooms, accessibility, contractor management, training, inspection, incident management, performance measurement, and continual improvement. The method is risk-based. Hazards are identified by location and activity; risk is assessed using a 5×5 matrix; controls are selected according to the hierarchy of controls; accountable owners and due dates are assigned; and effectiveness is verified through inspections, maintenance records, worker feedback, measurements, drills, audits, and management review. The handbook includes sample registers and forms so the management framework can be converted directly into an operational office HSE plan. The principal references include ISO 45001:2018, its Amendment 1:2024, Indonesian SMK3 requirements under Government Regulation No. 50 of 2012, workplace environment requirements under Minister of Manpower Regulation No. 5 of 2018, and publicly available office-safety guidance from occupational safety authorities. All requirements must be checked against the latest applicable legal and building conditions before use. The expected result is a healthy, safe, inclusive, and resilient office where life-safety systems remain effective, workstations fit users, hazards are corrected early, emergency roles are understood, and evidence is available for assurance and continuous improvement.

Rp499.000
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HSE

TEP-A210-00 GENERAL HEALTH SAFETY AND ENVIRONMENT HANDBOOK

The handbook defines a scalable HSE management architecture for corporate functions, EPC projects, industrial facilities and contractor organizations. It covers context and governance, legal compliance, hazard and environmental risk management, industrial hygiene, occupational safety, process safety, construction, permit-to-work, critical activities, emergency management, environmental controls, occupational health, contractors, design and procurement, transport, incidents, assurance, competence, performance measurement, management of change and lifecycle execution. Method • Plan: determine context, legal requirements, risk, environmental aspects, objectives and resources. • Do: establish controls, competence, communication, operational discipline and emergency capability. • Check: monitor exposure and performance, inspect workplaces, audit systems and investigate events. • Act: review effectiveness, manage change, correct systemic weaknesses and improve maturity

Rp499.000
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Project Management

TEP-A150-06 COST ESTIMATION INSPECTION SERVICE COMPANY HANDBOOK

COST ESTIMATION INSPECTION SERVICE COMPANY HANDBOOK VERSION 1.0 establishes a professional framework for preparing and controlling inspection-service estimates. It covers tender intake, estimate classification, scope decomposition, inspection assignments, man-hours, competency categories, labor rates, payroll burden, mobilization, travel, accommodation, tools, calibration, subcontract inspection, discipline-specific estimating, project support, schedule loading, risk, taxes, pricing, review, cost control and accreditation-related assurance. The handbook contains 44 technical chapters, 26 core practical appendices and 32 supplemental technical appendices. The supplemental section adds calculation notes, worked examples, maintenance and reliability procedures, procurement controls, field-release and commissioning forms, sector adaptation guidance, and enlarged 3D and actual visual plates. Three core worked examples demonstrate offshore fabrication inspection, refinery turnaround inspection and multi-country vendor surveillance.

Rp499.000
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Project Management

TEP-A150-08 COST ESTIMATION PROJECT MANAGEMENT TEAM HANDBOOK

Cost Estimation Project Management Team Handbook Version 1.0 presents an integrated working model for project cost estimating, cost control and management assurance. This extended issue adds detailed theory, fundamental formulas, calculation notes, worked examples, material specifications, procurement controls, ITP and inspection forms, field-release and commissioning records, maintenance and reliability procedures, 3D engineering schematics, field visualizations and an industrial-sector application matrix covering the complete project lifecycle from design through close-out.

Rp499.000
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Project Management

TEP-A150-07 BID DOCUMENT PROJECT MANAGEMENT TEAM HANDBOOK

BID DOCUMENT PROJECT MANAGEMENT TEAM provides a structured handbook for the preparation, integration, review, approval, submission and handover of bid documents managed by a Project Management Team. It addresses governance, bid/no-bid decisions, compliance management, PMT organization, tender scheduling, scope definition, technical integration, procurement, construction, commissioning, HSE, quality, cost, planning, project controls, risk, contracts, document control, clarification and negotiation. The handbook uses a stage-gated approach. Requirements are captured in registers, decomposed into accountable work packages, developed through coordinated technical and commercial inputs, subjected to progressive reviews and converted into an approved tender package. Control records enable auditors and project teams to reconstruct why a position was taken and who approved it.

Rp499.000
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Project Management

TEP-A150-05 BID DOCUMENT INSPECTION SERVICE COMPANY HANDBOOK

BID DOCUMENT INSPECTION SERVICE COMPANY provides a complete framework for procuring inspection service companies for EPC and industrial projects. It defines bid strategy, bidder instructions, scope, company qualification, inspector competency, discipline inspection requirements, vendor-shop workflow, material traceability, ITP and hold-point control, nonconformity management, reporting, manpower planning, mobilization, HSE, tools, calibration, commercial pricing, evaluation, contract requirements, KPIs, pre-inspection meetings, fabrication surveillance, commissioning support and final release. The handbook also supplies sample matrices, forms, worked evaluation methods and close-out controls. Its central principle is traceability: every bid requirement should connect to an execution activity, acceptance criterion, objective record and authorized decision.

Rp499.000
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Project Management

TEP-A150-05 BID DOCUMENT INSPECTION SERVICE COMPANY HANDBOOK

BID DOCUMENT INSPECTION SERVICE COMPANY provides a complete framework for procuring inspection service companies for EPC and industrial projects. It defines bid strategy, bidder instructions, scope, company qualification, inspector competency, discipline inspection requirements, vendor-shop workflow, material traceability, ITP and hold-point control, nonconformity management, reporting, manpower planning, mobilization, HSE, tools, calibration, commercial pricing, evaluation, contract requirements, KPIs, pre-inspection meetings, fabrication surveillance, commissioning support and final release. The handbook also supplies sample matrices, forms, worked evaluation methods and close-out controls. Its central principle is traceability: every bid requirement should connect to an execution activity, acceptance criterion, objective record and authorized decision.

Rp499.000
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Project Management

TEP-A150-03 PROJECT SCHEDULE ENGINEERING PROCUREMENT AND CONSTRUCTION (EPC) HANDBOOK

PROJECT SCHEDULE ENGINEERING PROCUREMENT AND CONSTRUCTION (EPC) defines an end-to-end EPC project schedule management system from contract review and schedule basis development through WBS design, integrated baseline preparation, progress measurement, updating, earned value, forecasting, risk, recovery, delay analysis and final as-built close-out. The handbook establishes a hierarchy from Level 1 executive milestones to Level 5 short-interval field plans. It explains engineering deliverable scheduling, procurement and vendor schedules, construction work-packaged planning, commissioning systemization, CPM logic, calendars, duration calculations, resource loading, critical-path management, baseline approval and schedule quality assurance. Worked examples demonstrate physical progress, SPI/CPI interpretation, float and path review, long-lead procurement logic, work-front readiness, P50/P80 risk dates, change fragnets and recovery scenarios. Appendices provide reusable templates, registers, checklists and data dictionaries suitable for adaptation to project procedures. The reference framework recognizes current published guidance including ISO 21502:2020, ISO 21508:2026, ISO 21511:2018, ISO 21512:2024, PMI Practice Standard for Scheduling - Third Edition, and applicable AACE International recommended practices. Users shall verify the latest published edition and contractual applicability at the time of use.

Rp499.000
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Project Management

TEP-A150-04 COST ESTIMATION EPC HANDBOOK

COST ESTIMATION EPC HANDBOOK presents a structured cost-estimation framework for capital EPC projects. It integrates estimate governance, project-definition maturity, Basis of Estimate, WBS/CBS/OBS coding, data normalization, estimate methods, discipline quantities, vendor pricing, labor productivity, logistics, indirect costs, commissioning, owner costs, currency, escalation, contingency, probabilistic risk analysis, schedule-cost integration, bid pricing, review, change control, earned value, forecasting and close-out. The handbook contains forty technical chapters and thirty-six practical appendices. Each chapter includes a 3D engineering visualization, representative field visualization, governing logic or formula, worked example, execution procedure, quality checklist, failure modes and minimum records. The appendices provide reusable templates for the Basis of Estimate, coding structures, equipment and bulk material cost sheets, labor productivity, vendor comparison, indirects, risk, contingency, escalation, cash flow, estimate review, bid approval and handover.

Rp499.000
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Project Management

TEP-A150-02 BID DOCUMENT ENGINEERING PROCUREMENT CONSTRUCTION HANDBOOK

BID DOCUMENT ENGINEERING PROCUREMENT CONSTRUCTION HANDBOOK VERSION 1.0 provides a comprehensive working framework for preparing and controlling EPC tender documents from opportunity registration through bid/no-bid, tender review, technical and commercial development, vendor and subcontractor engagement, estimating, management approval, submission, negotiation, award, and project handover. The handbook contains forty-seven chapters covering governance, compliance, scope, contract review, engineering basis, deliverables, quantities, procurement, approved vendors, fabrication, logistics, construction, commissioning, commercial controls, risk, submission, negotiation, award handover and a dedicated equipment-and-material lifecycle deep dive from design through reliability readiness. The final appendix series includes a complete fictional Oil & Gas EPC bid dossier for training and adaptation. Fifty-two appendices provide directly usable registers, matrices, checklists, evaluation forms, schedule and estimating controls, HSE and quality templates, equipment datasheet requirements, material receiving inspection, fabrication ITP, shipping, installation, commissioning and maintenance-readiness forms.

Rp499.000
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Project Management

TEP-A150-01 VENDOR LIST HANDBOOK

Vendor List Handbook Version 1.0 establishes a risk-based and auditable system for managing vendor information and approved vendor status throughout the project and asset lifecycle. It addresses policy, approval authority, commodity classification, registration data, legal and ethical screening, technical capability, quality assurance, HSE and sustainability, financial strength, insurance, tax, cybersecurity, approved vendor list structure, onboarding, sourcing, inspection, logistics, performance, corrective action, renewal, industrial-sector applications, digital systems, RACI, KPI reporting, record retention and maturity development.

Rp499.000
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Project Management

TEP-A140-09 REVIEW AND APRROVAL PROCEDURE HANDBOOK

This handbook defines a comprehensive and auditable system for planning, performing, recording and controlling the review and approval of project documents and technical information. It covers document classification, criticality, RACI, competence, input readiness, self-check, discipline checking, interdisciplinary review, independent verification, external review, vendor data, comment management, approval status, revision control, digital workflow, field release, commissioning readiness, KPIs, audit, security and record retention. Thirty-two implementation chapters are supported by eighteen practical appendices containing matrices, checklists, forms, logs, authority templates, worked KPI examples, audit questions, digital workflow requirements and a sector application matrix. Each chapter includes a workflow visual, control intent, mandatory requirements, evidence table, checklist, risk controls and performance measure. The procedure is designed for oil and gas, petrochemical, chemical, power, water and wastewater, mining, manufacturing, offshore, infrastructure and marine projects. It shall be tailored to the governing contract, applicable law, client procedures, project quality plan, discipline standards and approved information-management system.

Rp499.000
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Project Management

TEP-A140-07 DOCUMENT CONTROL PROCEDURE HANDBOOK

This handbook defines a comprehensive document control framework for engineering and capital projects. It establishes requirements for document identification, numbering, metadata, master document registers, preparation, checking, interdisciplinary review, approval, issue, transmittal, controlled distribution, revision, supersession, vendor data, site documents, redlines, as-built records, information security, retention, auditing and business continuity. The method is aligned with internationally recognized quality, documented-information, records-management, information-security and common-data-environment principles. It provides an auditable lifecycle in which each document has a unique identity, an accountable owner, an approved status, a traceable issue history and an authorized retention or disposition outcome. Implementation outputs include a project Document Control Plan, coding specification, master document register, workflow and approval matrix, distribution matrix, vendor document register, retention schedule, audit programme, KPI dashboard and final handover index. The appendices provide ready-to-adapt templates for those outputs

Rp499.000
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Project Management

TEP-A140-05 COMMUNICATION AND CORRESPONDENCE PROCEDURE HANDBOOK

COMMUNICATION AND CORRESPONDENCE PROCEDURE HANDBOOK VERSION 1.0 provides a structured framework for controlling project communication across engineering, procurement, manufacturing, logistics, construction, commissioning, handover and close-out. It integrates stakeholder analysis, communication planning, correspondence classification, formal letters, email protocol, transmittals, incoming and outgoing registration, response control, meeting minutes, technical queries, vendor and client interfaces, site instructions, contractual notices, confidentiality, digital platforms, crisis communication, performance monitoring and records management. Thirty-six chapters explain the control philosophy, required workflows, roles, records, KPIs, risks and implementation checks. Twenty-six appendices provide reusable plans, matrices, registers, forms, dashboards, writing guidance, audit tools and sector-application references. The handbook is applicable to oil and gas, petrochemical, chemical, power, water and wastewater, mining, manufacturing, offshore, marine and infrastructure projects.

Rp499.000
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Project Management

TEP-A140-08 PROGRES CALCULATION AND REPORTING HANDBOOK

This handbook defines an integrated system for calculating and reporting project progress across engineering, procurement, construction, pre-commissioning, commissioning, and handover. It explains how the Work Breakdown Structure, Cost Breakdown Structure, Organization Breakdown Structure, control accounts, work packages, quantities, budgeted man-hours, contract values, and weighted milestones are converted into an approved performance measurement baseline. Methods addressed include zero-hundred, fifty-fifty, weighted milestones, units complete, apportioned effort, level of effort, physical percentage complete, rule of credit, earned value management, earned schedule, productivity analysis, S-curves, variance analysis, trend evaluation, and forecast-at-completion. Worked examples demonstrate engineering deliverable credit, procurement package milestones, construction quantity measurement, integrated EPC progress, schedule and cost performance indices, estimate at completion, and recovery planning. Appendices provide sample forms, report structures, checklists, responsibility matrices, milestone libraries, calculation sheets, and audit questions. Overall Project Progress (%) = SUM [Stage Weight x Stage Progress] All weights are expressed as fractions or percentage points and shall total 100%.

Rp499.000
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Project Management

TEP-A140-02 EQUIPMENT AND PIPING NUMBERING PROCEDURE HANDBOOK

EQUIPMENT AND PIPING NUMBERING PROCEDURE HANDBOOK establishes a unified procedure for equipment and piping numbering. The equipment method uses a facility context, controlled equipment-type code, sequential number, optional parallel suffix and optional sub-item code. The piping method uses nominal size, service code, line sequence, material class, insulation and tracing identifiers. The exact display order is confirmed in a project configuration sheet. The procedure covers numbering governance, facility breakdown, sequence allocation, package and vendor equipment, brownfield reconciliation, service and material-class codes, branches and line continuations, specification breaks, valves and specialties, vents and drains, battery limits, tie-ins, safety-critical systems, register integration, changes, audits and handover. The principal output is a trusted master register whose identifiers match every controlled engineering and operational system. The expected result is zero duplicate active tags, complete mandatory attributes, consistent numbering across deliverables and a traceable lifecycle history from reservation through as-built closeout.

Rp499.000
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Project Management

TEP-A140-01 DOCUMENT NUMBERING PROCEDURE HANDBOOK

Document Numbering Procedure Handbook Version 1.0 defines a comprehensive framework for the identification and control of project information. It explains the relationship between corporate procedure numbers, project deliverable numbers, vendor native numbers, equipment tags, electronic file names, revisions, statuses, suitability codes, and EDMS metadata. The handbook contains thirty-five chapters and twenty appendices. Topics include governance, numbering philosophy, syntax design, project and originator codes, discipline and document-type coding, area and system segmentation, sequence allocation, revision and status management, drawing and report numbering, correspondence, vendor documents, file naming, metadata, MDR integration, duplicate prevention, renumbering, audit, implementation, and troubleshooting.

Rp499.000
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Project Management

TEP-A140-03 MASTER DOCUMENT AND ITEM LIST HANDBOOK

MASTER DOCUMENT AND ITEM LIST HANDBOOK VERSION 1.0 provides a practical framework for planning, coding, registering, reviewing, issuing, revising, distributing, validating, archiving and handing over project documents and item data. It integrates engineering deliverables, vendor documents, procurement items, equipment tags, piping lines, electrical and instrument objects, civil assets, quality records, construction work packs, commissioning systems and final dossiers. The handbook includes workflow diagrams, control requirements, required-record matrices, roles, risk controls, KPIs, checklists and twenty-four project-ready appendices. It is designed for oil and gas, petrochemical, chemical, power, water and wastewater, mining, manufacturing, offshore, marine and infrastructure projects.

Rp499.000
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Project Management

TEP-A130-04 PROJECT S-CURVE PROGRESS PLAN HANDBOOK

ABSTRACT This handbook defines the lifecycle of a project S-curve progress plan from scope decomposition through baseline approval, periodic status, earned progress, variance analysis, forecasting, recovery and close-out. It explains planned value, earned value, actual cost, schedule and cost performance indices, quantity-weighted progress, milestone weighting, resource-loaded curves, cost curves and composite physical progress. Worked examples demonstrate monthly and weekly calculations, discipline weighting, engineering deliverable credit, procurement milestone credit, construction installed-quantity measurement, commissioning system completion, forecast-at-completion and recovery scenarios. Templates are provided for a progress measurement basis, weight register, data collection sheet, monthly report, change log, recovery plan and audit checklist. The framework is aligned conceptually with current international project-management and earned-value guidance, including ISO 21508:2026, ISO 21512:2024, ISO 21502:2020 and the PMI Standard for Earned Value Management, subject always to project-specific contractual requirements. • Baseline, actual and forecast S-curves. • WBS/CBS and organizational integration. • Progress evidence and data quality controls. • EVM, productivity, trend and completion forecasting. • Cross-industry application and governance.

Rp499.000
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Project Management

TEP-A130-03 PROJECT MASTER SCHEDULE HANDBOOK

Project Master Schedule - development, control and assurance Scope. The handbook covers schedule governance, WBS integration, schedule hierarchy, milestone control, logic and duration development, critical path, float, resource and cost loading, phase integration, baseline control, progress measurement, look-ahead planning, forecasting, recovery, schedule risk, change, delay analysis, reporting, quality assessment, digital integration and closeout. Method. A lifecycle and control-cycle approach is used. Each schedule requirement is translated into defined inputs, execution rules, outputs, records, approval steps and verification checks. Worked examples explain CPM, PERT, weighted progress and earned-value indicators. Key outputs. Typical outputs include the schedule management plan, basis of schedule, integrated Level 1-4 schedules, milestone register, coding dictionary, progress measurement system, baseline package, update package, schedule narrative, risk analysis, recovery plan, time-impact analysis, delay register, quality report and final as-built schedule. Management value. When properly implemented, the framework improves coordination, early warning, decision quality, resource planning, forecast reliability, change management, audit readiness and contractual defensibility.

Rp499.000
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Project Management

TEP-A130-02 PROJECT DEFINITION GENERAL INFORMATION HANDBOOK

This handbook presents a structured framework for preparing, reviewing and approving project definition and general information for industrial, energy, infrastructure and construction projects. It integrates business need, scope, design basis, key project data, stakeholder requirements, site conditions, execution strategy, schedule, cost, risk, HSE, quality, engineering, procurement, construction, commissioning, operations readiness, information management and governance. The methodology uses a lifecycle and gate-based approach supported by controlled registers, responsibility matrices, interface management, assumption closure, risk analysis, decision records, evidence indexing and a measurable project definition maturity assessment. The framework is scalable and can be tailored to greenfield, brownfield, revamp, offshore, onshore, utility, manufacturing and infrastructure projects. Typical outputs include an approved project data sheet, scope statement, battery-limit matrix, stakeholder requirement register, design basis, codes-and-standards register, execution and contracting strategy, WBS, milestone schedule, estimate basis, risk register, HSE and quality requirements, discipline definition deliverables, long-lead strategy, construction and commissioning philosophy, operations-readiness requirements, interface and permit registers, change log, maturity assessment and final approval package. When applied with competent professional review and project-specific requirements, the framework improves decision quality, definition completeness, cost and schedule predictability, interface clarity, authorization readiness and transition into detailed execution. Keywords: project definition, general information, business case, scope, design basis, front-end planning, FEED, project controls, risk, cost estimate, schedule, execution readiness, gate review, EPC, engineering management.

Rp499.000
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Children

TEP-D000-01 COMMISSIONING PROJECT HANDBOOK FOR CHILDREN

This handbook presents a comprehensive framework for managing and executing commissioning activities in EPC, oil and gas, petrochemical, power, industrial, utility, infrastructure, and process plant projects. It covers systemization, mechanical completion, pre-commissioning, commissioning, start-up, performance testing, safety management, discipline interfaces, records, certificates, handover requirements, and lessons learned. Core content includes commissioning organization, planning, scheduling, resource control, risk assessment, SIMOPS, permit-to-work, isolation/LOTO, cleaning, flushing, drying, leak testing, electrical energization, instrument calibration, loop testing, rotating equipment checks, static equipment preparation, piping commissioning, control system verification, fire and gas readiness, vendor support, and completion dossier management. The methodology emphasizes prerequisites, field execution, verification, acceptance evidence, and risk control for each commissioning subject. It links procedures, checklists, test records, certificates, and punch-list categories to clear handover gates so that no system proceeds to the next phase without controlled acceptance evidence. The final objective is to support safe start-up, reliable operation, contractual compliance, and disciplined transfer of care, custody, and control from construction to commissioning and from commissioning to operations. The document is intended as a professional training and project execution reference and shall be used together with approved project specifications and applicable standards

Rp499.000
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Children

TEP-B000-01 SHOP INSPECTION PROCEDURE HANDBOOK FOR CHILDREN

This 145-page handbook defines a complete, evidence-based approach to shop inspection for industrial equipment, fabricated items, piping, structures, electrical equipment, instruments, control systems, packages, and materials. It combines technical depth with child-friendly explanation and safe learning activities. Scope of learning • Governance, roles, quality planning, supplier readiness, document control, and risk-based surveillance. • ITP preparation and control of Hold, Witness, Review, Surveillance, Monitoring, and Release points. • Material certificates, traceability, PMI, preservation, fabrication, welding, NDE, dimensions, testing, and coating. • Equipment-specific, electrical, instrument, FAT, packing, shipment, NCR, MRB, HSE, ethics, and final handover controls. • Calculation notes, worked examples, material specifications, procurement control, forms, maintenance, reliability, commissioning, and industrial-sector applications.

Rp499.000
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Children

TEP-A387-02 SACRIFICIAL ANODE CATHODIC PROTECTION HANDBOOK FOR CHILDREN

This handbook explains how sacrificial anodes help protect buried and submerged metal. Young learners discover corrosion cells, protection measurements, reference electrodes, magnesium, zinc and aluminium anodes, coatings, soil and water resistivity, current demand, anode life, safe installation, inspection, commissioning, monitoring and maintenance. Teacher notes preserve the controlled engineering terms, equations, standards, checklists and project forms used in real work.

Rp499.000
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Children

TEP-A386-01 GENERAL COMMUNICATION SYSTEM FOR CHILDREN

This handbook explains how industrial communication systems help people and machines exchange information. It follows a simple learning path: understand messages and system boundaries, plan a communication architecture, choose suitable wired and wireless paths, protect emergency and security services, test the completed system, and care for it throughout its life. Learners explore structured cabling, fiber-optic links, network switches, IP addresses, VLANs, Quality of Service, VoIP, emergency telephones, public address and general alarm, radio, wireless LAN, CCTV, access control, master clocks, telecom rooms, UPS, earthing, electromagnetic compatibility, hazardous environments, cybersecurity, microwave and satellite links, FAT, SAT, commissioning, maintenance, spares, and troubleshooting.

Rp499.000
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Children

TEP-A385-01 GENERAL FIRE ALARM GAS DETECTION HANDBOOK FOR CHILDREN

This handbook introduces the main ideas of Fire Alarm and Gas Detection systems for young learners. It explains fire and gas hazards, fire detectors, gas sensor technologies, detector placement, alarms, cause-and-effect logic, control panels, power, cables, hazardous areas, installation, testing, maintenance, documents, and HSE teamwork. The book follows the lifecycle of a real project: understand the hazard, choose approved rules, design the system, select equipment, place detectors, build alarm logic, install devices, test the complete signal path, maintain the system, and keep accurate records. Learning Area Child-Friendly Focus Fire Alarm How smoke, heat, flame, and manual devices start warnings. Gas Detection How sensors detect combustible, toxic, and oxygen hazards. System Thinking How sensors, panels, alarms, interfaces, and people work together. Safe Engineering Why standards, certification, inspection, testing, and records matter. Life Skills Observation, communication, teamwork, responsibility, and emergency behavior.

Rp499.000
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Children

TEP-A383-01 LIGHTING FIXTURE SPECIFICATION HANDBOOK FOR CHILDREN

Lighting Fixture Specification Handbook for Children is a structured educational handbook that introduces the purpose, construction, specification, and lifecycle of lighting fixtures used in buildings and industrial facilities. The handbook covers light sources, LEDs, common fixture types, lumen/lux/watt, beam angle, color quality, data sheets, fixture selection, lighting layouts, quantity estimation, inspection, maintenance, energy efficiency, and cross-industry use. Additional technical content includes worked examples, material specification notes, procurement control, inspection and test planning, maintenance procedures, industrial application matrices, and project-stage discussions covering design, fabrication, delivery, installation, construction, and commissioning.

Rp499.000
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Children

TEP-A381-11 UPS CAPACITY AND SPECIFICATION HANDBOOK FOR CHILDREN

This handbook presents an integrated engineering method for defining, sizing, specifying, procuring, installing, testing, commissioning, operating, and maintaining industrial uninterruptible power supply systems. It covers critical-load assessment, real and apparent power, diversity and simultaneity, future growth, site derating, modular and parallel arrangements, N+1 and 2N architectures, battery autonomy, end-of-life factors, charger sizing, generator compatibility, bypass rating, protection coordination, earthing, HVAC, monitoring, cybersecurity interfaces, and lifecycle documentation. Worked examples, calculation sheets, technical data schedules, inspection and test plans, FAT/SAT checklists, maintenance frequencies, risk registers, bid-evaluation criteria, and industrial application guidance are included. The method is applicable to oil and gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, marine, infrastructure, data-center, and other critical facilities.

Rp499.000
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Children

TEP-A381-06 POWER TRANSFORMER SPECIFICATION HANDBOOK FOR CHILDREN

Power Transformer Specification Handbook for Children in English, Version 1.0, is a supervised learning guide to liquid-immersed power transformers. It explains what transformers do, how their core and windings work, why insulation and cooling are essential, how ratings and connections are selected, and how protection, testing, transport, installation, commissioning and maintenance fit together. The handbook contains 39 chapters and 13 appendices. Young Engineer Summaries and 3D learning visuals provide a simple entry point, while the detailed engineering sections, tables, calculations, checklists, ITP/FAT/SAT forms and example data sheets are retained for guided study by older learners and adults. The book is intended for schools, families, technical training programs and supervised engineering education. It must never be used as a substitute for site rules, safe-work procedures, approved project documents or qualified professional judgment.  

Rp499.000
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Children

TEP-A380-07 ELECTRICAL GENERAL SPECIFICATION FOR CHILDREN

Electrical General Specification Handbook for Children – Version 1.0 presents a structured introduction to electrical safety, power distribution, diagrams, cables, switchgear, transformers, motors, lighting, earthing, protection, inspection, commissioning, maintenance, procurement, documentation, calculations, and industrial applications. The expanded edition contains twenty-four chapters and practical appendices. Each chapter provides learning objectives, deeper theory, a unique 3D visual learning poster, technical parameters, material specifications, worked examples, inspection and test checklists, maintenance frequencies, and an industrial-sector perspective. The material is designed for guided education, not unsupervised electrical work. Safe low-voltage activities, adult supervision, clear communication, and respect for professional boundaries are central themes throughout the handbook. Keywords: electrical engineering, children, safety, power distribution, cable, switchgear, transformer, motor, earthing, commissioning, maintenance, reliability, quality, inspection, education.

Rp499.000
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Children

TEP-A377-06 INSTRUMENT WORK HANDBOOK FOR CHILDREN

TEP-A377-06 Instrument Work Handbook for Children, Version 1.0, is an English-language educational guide for learners approximately 10–16 years old. It introduces industrial instrumentation through a safe, children-friendly sequence from sensing to control, testing, quality, and handover. Learning Scope Theme Examples Learning Outcome Measurement Pressure, temperature, flow, level Explain what each measurement tells us. Signals and Control Analog, digital, 4–20 mA, feedback Trace information from sensor to action. Field Work Cables, junction boxes, tubing, valves Recognize major components and good-work ideas. Safety Systems SIS, fire and gas, hazardous areas Describe why special protection and trained adults are required. Quality and Testing Calibration, loop checks, inspection Explain how engineers prove that results are correct. Project Completion Commissioning, punch lists, handover Understand that records are part of a complete engineering job.

Rp499.000
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Children

TEP-A376-01 INSTRUMENT MONITORING SYSTEM FOR CHILDREN

Instrument Monitoring System Handbook for Children presents a structured introduction to industrial measurement and monitoring. It explains the purpose of sensors, transmitters, signal paths, controllers, human-machine interfaces, trends, alarms, protective trips, inspection, calibration, maintenance, and safe learning behavior. The handbook focuses on temperature, pressure, level, flow, and vibration measurements, then connects them into a complete field-to-control-room information journey.

Rp499.000
Thumbnail for TEP-A375-02 SPECIFICATION ANALYZER HANDBOOK FOR CHILDREN
Children

TEP-A375-02 SPECIFICATION ANALYZER HANDBOOK FOR CHILDREN

This handbook presents a complete visual method for analyzer specification analysis across engineering design, procurement, fabrication, shipping, installation, construction, commissioning, maintenance and handover. It combines document analysis with practical knowledge of analyzer measurement principles, sample conditioning, analyzer houses, materials, utilities, inspection and reliability.

Rp499.000
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Children

TEP-A374-01 CONTROL VALVE DESIGN HANDBOOK FOR CHILDREN

Control Valve Design for Children Handbook Version 1.0 is an English-language educational reference that introduces industrial control valve engineering in a safe and age-appropriate form. It explains control loops, valve parts and types, trim, actuators, positioners, signals, fail action, P&IDs, design data, liquid and gas sizing concepts, Cv and Kv, flow characteristics, cavitation, flashing, noise, vibration, materials, installation, calibration, FAT, SAT, commissioning, maintenance, troubleshooting and safety final elements. Twenty-four chapters combine concept pages, application pages and chapter-specific engineering deep-dive pages. The added technical extensions cover calculation notes, material and procurement controls, lifecycle checkpoints, inspection evidence, commissioning, maintenance, reliability and sector applications. Appendices provide simplified equations, worked examples, a child-friendly datasheet, inspection and commissioning forms, maintenance records, an industrial application matrix, a glossary and references. The handbook does not authorize industrial design or operation. Its purpose is to help learners understand how engineers think: define the duty, gather data, calculate carefully, select equipment, verify performance, document evidence and place safety before production.

Rp499.000
Thumbnail for TEP-A371-06 INSTRUMENT LOCAL PANEL HANDBOOK FOR CHILDREN
Children

TEP-A371-06 INSTRUMENT LOCAL PANEL HANDBOOK FOR CHILDREN

Instrument Local Panel Handbook for Children presents a structured English-language introduction to local industrial control panels. It explains enclosure functions, operator devices, internal components, signals, design inputs, calculations, material selection, fabrication, wiring, installation, inspection, testing, commissioning, operation, alarms, maintenance, reliability, troubleshooting, documentation, procurement, logistics, and industrial applications. The handbook contains fifteen chapters and ten appendices. Technical subjects are supported by basic formulas and worked examples, including power and current, 4-20 mA scaling, heat and spare capacity, voltage drop, support loading, measurement error, availability, document completion, shipping volume, and project progress. Professional templates are included for material lists, datasheets, inspection and test plans, inspection records, FAT/SAT, commissioning, field release, maintenance, reliability tracking, and sector application review. Classroom projects use only teacher-approved low-voltage models and emphasize planning, labeling, testing, recording, and safe teamwork. The intended outcome is not authorization to work on industrial equipment. It is a strong foundation for engineering awareness, safety culture, technical vocabulary, and future STEM learning.

Rp499.000
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Children

TEP-A371-04 FIRE AND GAS SAFETY HANDBOOK FOR CHILDREN

This revised children's edition adds more detailed explanations, larger text for easier reading, and more illustrations and photo-based learning pages to help young readers understand fire and gas safety step by step. ● Longer explanations in every chapter ● Larger reading text for children ● Additional image-based learning and picture talk prompts

Rp499.000
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Children

TEP-A371-01 DISTRIBUTED CONTROL SYSTEM HANDBOOK FOR CHILDREN

This handbook introduces the main ideas of Distributed Control Systems for young learners. It explains how sensors measure a process, how signals enter input modules, how controllers make decisions, how outputs move valves and motors, and how operators use Human-Machine Interface (HMI) screens to supervise a plant. The book also introduces reliable hardware, redundant power and networks, industrial communication, alarm management, Safety Instrumented Systems, Factory Acceptance Testing (FAT), Site Acceptance Testing (SAT), commissioning, maintenance, backup and recovery, basic cybersecurity, and simple engineering calculations.

Rp499.000
Thumbnail for TEP-A367-02 PIPING MATERIAL ENGINEERING HANDBOOK FOR CHILDREN
Children

TEP-A367-02 PIPING MATERIAL ENGINEERING HANDBOOK FOR CHILDREN

This handbook introduces the complete piping material engineering journey: discipline scope, codes and standards, design inputs, material selection, line classes, pipe dimensions, fittings, flanges, valves, gaskets, bolting, corrosion, welding, inspection, traceability, procurement, vendor review, storage, construction support, quality gates and oil-and-gas material lists. Each chapter contains a professional field illustration adapted from the uploaded handbook, a colorful learning drawing, child-friendly explanations, key vocabulary, a safe mini activity, a safety warning and review questions. Appendices provide a glossary, classroom projects, a knowledge check, industry-sector examples and a reference register.

Rp499.000
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Children

TEP-A366-03 PIPING DIMENSION HANDBOOK FOR CHILDREN

Piping Dimension Handbook Version 1.0 for Children is a professional learning handbook that introduces piping dimension engineering in English for young learners. The handbook explains nominal pipe size, outside diameter, wall thickness, inside diameter, schedules, fittings, flanges, valves, supports, tolerances, drawings, inspection, maintenance, and commissioning. It also includes technical tables, sample forms, worked examples, material lists, industrial sector applications, and classroom learning activities. This final edition has been prepared as a ready-to-print document with a full cover, Table of Contents, consistent chapter layout, enlarged captions, and clear engineering visuals.

Rp499.000
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Children

TEP-A364-05 PIPE THERMOWELL HANDBOOK FOR CHILDREN

This handbook presents a comprehensive engineering framework for the design, selection and lifecycle management of industrial thermowells. It covers straight, tapered and stepped profiles; threaded, flanged, weld-in and Van Stone connections; materials for general, corrosive, erosive, sour, chloride, high-temperature, offshore and special services; and the integration of RTD and thermocouple sensors. Technical content includes process-data definition, unsupported and insertion length, pressure and static strength concepts, vortex shedding, natural frequency, frequency ratio, damping and resonance avoidance, thermal response, measurement accuracy, fabrication and welding controls, NDE, pressure testing, procurement traceability, site installation, commissioning, maintenance and root-cause analysis. Worked examples and forms are provided for engineering training and project control. The handbook supports oil and gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, LNG, infrastructure and marine applications. It is intended to improve measurement reliability, pressure-boundary integrity, maintainability and consistency of project execution.

Rp499.000
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Children

TEP-A364-01 PIPE NOZZLE HANDBOOK FOR CHILDREN

A pipe nozzle is a controlled opening or short branch that connects piping, valves, instruments, vents, drains, samples, or other systems to a pipe, tank, vessel, boiler, heat exchanger, filter, reactor, pump, or machine. A nozzle must provide a flow path while preserving strength, sealing, alignment, accessibility, inspectability, and safe operation. Sixteen chapters cover nozzle functions and locations; parts; shapes and connection types; flanges and gaskets; materials and corrosion; flow, pressure, and temperature; loads and supports; design and calculations; fabrication and welding; inspection and testing; installation and commissioning; procurement and logistics; heavy equipment and construction; maintenance and reliability; industrial applications; and engineering careers. Seven appendices provide calculation worksheets, material and procurement controls, ITP and inspection forms, field release and commissioning forms, maintenance records, an industrial-sector matrix, a glossary, quiz, answer key, references, and photo credits. The handbook is educational and must not be used as a substitute for qualified engineering judgment.

Rp499.000
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Children

TEP-A361-01 PIPING ENGINEERING HANDBOOK FOR CHILDREN

This English Version 1.0 presents a structured, professional, and child-friendly introduction to industrial piping engineering. The handbook contains twenty chapters and technical appendices covering piping systems, safety, components, valves, supports, design conditions, flow, materials, corrosion, codes, layout, equipment interfaces, process services, stress, drawings, fabrication, welding, inspection, testing, commissioning, maintenance, sustainability, and smart engineering. Each chapter includes a large technical visual, a field learning image, a deeper engineering explanation, a formula or calculation note, a lifecycle workflow, a material list, inspection checks, maintenance frequency guidance, an inspection record, an industrial-sector application matrix, a safe activity, vocabulary, and review questions. The handbook is intended for education, career awareness, STEM learning, technical English, and supervised classroom activities. It is not a substitute for governing codes, project calculations, professional competence, inspection certification, statutory approval, or site-specific procedures.

Rp499.000
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Children

TEP-A340-06 GAS TURBINE HANDBOOK FOR CHILDREN

A gas turbine follows a repeating energy story: air is taken in, compressed, heated, expanded through turbine blades, and sent to the exhaust. The spinning shaft can make electricity or drive a compressor or pump. 1 TAKE IN AIR 2 SQUEEZE 3 ADD HEAT 4 SPIN 5 USE POWER The handbook also explains clean air, fuel, oil, controls, fire protection, exhaust, foundations, performance, testing, transportation, installation, first fire, operation, maintenance, and applications in different industries. THE FIVE-STEP ENERGY STORY 1 AIR IN 2 SQUEEZE 3 ADD HEAT 4 SPIN 5 USE POWER Clean air enters. Pressure rises. Fuel releases heat. Hot gas turns blades. The shaft does useful work. SCIENCE air, heat, pressure, motion ENGINEERING design, tests, calculations, records SAFETY hazards, barriers, alarms, PPE LIFECYCLE build, deliver, install, run, maintain

Rp499.000
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Children

TEP-A340-04 STEAM TURBINES HANDBOOK FOR CHILDREN

A steam turbine converts the pressure and thermal energy of steam into rotary mechanical power by expanding steam through stationary nozzles and moving blades. The shaft can drive a generator, compressor, pump, fan, blower, or marine equipment, while exhaust or extraction steam may remain useful for heating and cogeneration. RELIABLE OPERATION Dry and clean steam, correct materials, stable lubrication, accurate alignment, controlled warm-up and drainage, responsive governing, independent overspeed protection, disciplined operation, condition-based maintenance, and traceable records work together. HANDBOOK SCOPE Twenty-one chapters and eight technical appendices provide child-friendly theory, basic equations, worked examples, material notes, inspection forms, maintenance procedures, sector applications, safety checklists, and glossary terms.

Rp499.000
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Children

TEP-A340-01 PUMPS HANDBOOK FOR CHILDREN

TEP-A340-01 PUMPS HANDBOOK VERSION 1.0 FOR CHILDREN presents an illustrated introduction to pump engineering in English. It explains what pumps do, how centrifugal and positive displacement pumps work, how major components fit together, and how complete pumping systems are designed, installed, controlled, inspected, commissioned, operated, and maintained. The handbook introduces flow, pressure, head, power, efficiency, pump curves, system curves, operating points, Best Efficiency Point, suction reliability, NPSH, cavitation, minimum flow, materials, corrosion, seals, bearings, couplings, motors, controls, alarms, trips, alignment, pipe strain, lubrication, vibration, and troubleshooting. Project and quality topics include data sheets, specifications, technical bid evaluation, vendor documents, material traceability, Inspection and Test Plans, factory and site tests, preservation, packing, transportation, receiving, construction checklists, commissioning records, maintenance frequency, and reliability learning. The final sections provide an industrial application matrix, editable-style forms, a glossary, a hands-on water-moving activity, a quiz, a completion certificate, and closing learning guidance. The handbook is educational and does not replace project-specific professional engineering

Rp499.000
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Children

TEP-A333-01 COMPRESSOR HANDBOOK FOR CHILDREN

This handbook introduces compressor fundamentals, major compressor types, gas properties, basic performance calculations, drivers, auxiliary systems, safety, project lifecycle, materials, inspection, installation, commissioning, troubleshooting, maintenance, reliability, compressor-station integration, industrial applications, and key engineering vocabulary. Part Coverage Fundamentals Compression, pressure, flow, temperature, compressor families, and power. Package Systems Intake, cooling, receivers, dryers, filters, piping, controls, and protection. Project Execution Design, procurement, fabrication, shipping, installation, inspection, and commissioning. Operation and Maintenance Start-up, shutdown, troubleshooting, maintenance frequency, condition monitoring, and spare parts. Lifecycle Assurance Safety, reliability, station integration, industrial applications, records, quizzes, and activities.

Rp499.000
Thumbnail for TEP-A330-07 REFRIGERATED STORAGE TANK HANDBOOK FOR CHILDREN
Children

TEP-A330-07 REFRIGERATED STORAGE TANK HANDBOOK FOR CHILDREN

This English-language children’s handbook explains how aboveground refrigerated storage tank systems keep liquefied gases cold, contained, monitored, and available for controlled transfer. It introduces product properties, tank types, capacity, heat leak, boil-off gas, pressure, vacuum, cold-temperature materials, inner and outer containers, roofs, foundations, insulation, piping connections, relief devices, instruments, alarms, fire and gas systems, and electrical support. Project-execution chapters explain how engineers prepare drawings and specifications, purchase materials, inspect fabrication, plan transport, erect the tank, control welding, perform tests, dry and purge systems, cool the tank, introduce the first liquid, test performance, and assemble handover records. Operation chapters cover filling, storage, transfer, inspection, maintenance, abnormal conditions, integrity, and emergency organization.

Rp499.000
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Children

TEP-A330-05 ATMOSPHERIC STORAGE TANK FOR CHILDREN

This handbook introduces children to aboveground atmospheric storage tanks: large containers that store liquids at pressure close to the air around us. It explains where tanks are used, how different roof types work, and how the main parts fit together. The book covers the tank life cycle from design and construction to testing, operation, inspection, maintenance, environmental protection, and retirement. Complex topics—such as venting, hydrostatic pressure, overfill protection, corrosion, settlement, alarms, and emergency systems—are presented with child-friendly language and visual examples. The mathematics section introduces cylinder volume, level percentage, and liquid pressure using guided examples. Checklists, observation activities, a glossary, worksheets, and a final quiz support learning and discussion. The central message is simple: good engineering combines science, careful design, teamwork, inspection, clear records, and a strong safety culture.

Rp499.000
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Children

TEP-A330-02 REACTOR ENGINEERING HANDBOOK FOR CHILDREN

This expanded young learners edition introduces the complete reactor lifecycle in 30 technical chapters, a 22-page visual learning track, editable engineering worksheets, appendices, glossary activities and a learning certificate. The handbook uses larger text, clear diagrams, representative industrial photographs, simple formulas, checklists and safety-first explanations. BOOK STRUCTURE Pages 5-8 contain linked contents and navigation. The handbook includes 30 technical chapters, a 22-page visual learning track, eight editable worksheets, appendices, review activities and a learning certificate. Final verified layout: 110 pages

Rp499.000
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Children

TEP-A330-01 TANK MIXING HANDBOOK FOR CHILDREN

This 145-page handbook presents tank mixing as an integrated engineering system for young learners. It covers objectives, safety, tank geometry, drive components, phases, density, viscosity, rheology, flow regimes, flow direction, vortices, impellers, mechanical integrity, sensors, blend time, heat and mass transfer, scale-up, fabrication, commissioning, maintenance, industrial applications, classroom projects, quizzes, and glossary terms. Each chapter includes unique visuals, equations, worked examples, material lists, inspection records, maintenance frequencies, and sector applications.

Rp499.000
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Children

TEP-A325-01 STAIRWAY AND LADDER HANDBOOK FOR CHILDREN

The handbook introduces standard stairs, fixed ladders, portable ladders, special stairs, platforms, handrails, guardrails, toe plates, gates, supports and safety systems. It also explains how materials are selected, parts are fabricated, modules are transported, structures are installed, inspections are recorded and defects are repaired. LIFECYCLE CHILD-FRIENDLY LEARNING GOAL DESIGN Choose the safest access, set geometry, follow the load path and coordinate the route. BUILD Use controlled materials, drawings, welding, dimensions and coatings. INSTALL Survey, lift, brace, align, connect, repair finishes and release safely. USE Train users, keep routes clean, control weather and plan emergencies. MAINTAIN Inspect, classify defects, repair correctly and learn from repeat problems.

Rp499.000
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Children

TEP-A323-02 PILE FOUNDATION DESIGN FOR CHILDREN

Pile Foundation Design for Children introduces deep foundations through clear English, larger text, simplified diagrams, model activities, vocabulary tables, and short quizzes. The book explains why foundations are needed, how engineers investigate soil and groundwater, common pile types, skin friction and end bearing, pile groups and caps, driven and bored pile construction, quality control, pile testing, common problems, special applications, and a junior engineer design challenge. Learning Outcomes • Use important foundation words correctly. • Explain how loads travel from a structure into piles and ground. • Recognize the main steps of pile design, construction, inspection, and testing. • Create and test a safe classroom model using an engineering record. • Understand that real design requires qualified professionals and project-specific information.

Rp499.000
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Children

TEP-A321-07 ERECTION STEEL STRUCTURE FOR CHILDREN

Coverage The handbook covers introduction, structural steel materials, structural components, engineering documents, fabrication, construction planning, erection equipment, rigging, steel erection, bolting, welding, alignment, grouting, corrosion protection, quality control, safety, inspection and testing, commissioning support, maintenance, and appendices. Technical Learning The pages include calculation notes, worked examples, material specifications, procurement controls, ITP concepts, inspection and field-release records, commissioning forms, maintenance frequencies, and reliability procedures. Industrial Applications Examples connect steel structures to Oil & Gas, Petrochemical, Chemical, Power Plant, Water & Wastewater, Mining, Manufacturing, Offshore, Infrastructure, and Marine work. Expected Result Young readers should be able to name common members, explain the erection sequence, identify major hazards, recognize inspection records, and describe why maintenance protects structural reliability.

Rp499.000
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Children

TEP-A321-03 SHOP STEEL FABRICATION HANDBOOK FOR CHILDREN

Shop Steel Fabrication for Children Handbook Version 1.0 presents the complete structural-steel fabrication lifecycle in clear English. It covers materials and grades, drawings, nesting, cutting, drilling, forming, fit-up, welding, bolting, dimensional control, inspection, coating, nonconformance, final release, packing, transportation, site receiving, HSE, planning, and equipment reliability. Each chapter combines professional technical content with a child-friendly 3D learning scene, an actual field photograph, a calculation note, inspection ideas, a safety message, and a Young Engineer activity or question. The handbook is intended for supervised education and career awareness, not for unsupervised practical work. The appendices include calculation examples, procurement controls, an inspection and test plan, fabrication forms, maintenance procedures, a sector application matrix, and a glossary.

Rp499.000
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Children

TEP-A319-02 MARINE FACILITY HANDBOOK FOR CHILDREN

This final harmonized edition contains 18 detailed chapters covering marine facility systems, waves and tides, ports and terminals, coastal protection, jetties and quays, berthing, mooring, fenders, navigation aids, cargo systems, offshore facilities, foundations, materials and corrosion, marine construction, inspection and maintenance, safety, environmental protection, and smart sustainable facilities. The handbook includes linked contents, enlarged captions, consistent image sizing, dedicated children-focused 3D and actual-style learning visuals in every chapter, technical flow diagrams, material specifications, procurement controls, ITP and inspection forms, maintenance records, worked examples, an industrial application matrix, a glossary, templates, quizzes, and an answer guide

Rp499.000
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Children

TEP-A317-01 FENCE AND GATE HANDBOOK FOR CHILDREN

This handbook introduces the purpose, parts, types, planning, foundations, mesh, gate movement, access control, sensors, safety, materials, construction, inspection, testing, maintenance and basic calculations associated with fence and gate systems. Eighteen learning chapters use a five-page pattern: a 3D learning drawing, an explanation page, a field learning scene, a safety page and an activity-and-quiz page. The appendices provide a glossary, safety rules, a site visit checklist, an inspection form, a maintenance calendar, answer keys, references and a junior engineer certificate.

Rp499.000
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Children

TEP-A316-05 PREPARATION OF UNDERGROUND FACILITY DESIGN HANDBOOK FOR CHILDREN

This handbook introduces the preparation of underground facility design for industrial and infrastructure projects. It covers underground piping, firewater, drainage, electrical cables, instrument and communication routes, earthing, crossings, trenches, bedding, chambers, structures, buoyancy, corrosion, waterproofing, materials, calculations, 3D models, constructability, inspection, testing, HSE, maintenance, industrial applications, case studies, and lessons learned. Each chapter uses two learning pages. The first page explains the big idea with a technical illustration. The second page connects the idea to field practice, a simple engineering rule, a safety message, and a hands-on mini challenge.

Rp499.000
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Children

TEP-A316-01 DRAINAGE HANDBOOK FOR CHILDREN

Drainage Handbook for Children – English Version 1.0 presents a complete introduction to stormwater drainage and related civil engineering work. The content covers rainfall and runoff, catchments, slopes, inlets, channels, pipes, culverts, manholes, outlets, erosion protection, green drainage, construction safety, materials, inspection, maintenance, testing, and community flood preparedness. Simple engineering relationships are introduced, including the Rational Method for peak runoff, continuity of flow, channel slope, and basic measurement. Worked examples are supported by calculation notes, material lists, inspection forms, maintenance schedules, field-release checks, and commissioning records. The handbook also explains how drainage is used in Oil & Gas, Petrochemical, Chemical, Power Plant, Water & Wastewater, Mining, Manufacturing, Offshore, Infrastructure, and Marine sectors. The result is a print-ready learning resource that combines child-friendly visuals with professional terminology, lifecycle thinking, and safe engineering behavior.

Rp499.000
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Children

TEP-A313-02 CONCRETE WORK HANDBOOK FOR CHILDREN

Concrete work is a multidisciplinary activity connecting engineering design, procurement, materials, batching, transportation, temporary works, reinforcement, placement, compaction, finishing, curing, inspection, testing, safety, repair, handover, and maintenance. Weak control at any stage can lead to low strength, cracking, honeycombing, leakage, poor cover, misaligned anchors, unsafe conditions, or incomplete records. This handbook presents twenty child-friendly chapters and twelve practical appendices. Each chapter begins with a unique 3D learning visual and includes an actual field image, detailed theory, basic formulas, worked examples, material or technical specifications, process diagrams, equipment lists, industry applications, inspection checklists, safety controls, maintenance frequencies, and supervised activities.

Rp499.000
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Children

TEP-A311-02 SOIL INVESTIGATION HANDBOOK FOR CHILDREN

Soil Investigation for Children Handbook Version 1.0 in English presents a complete framework for understanding the planning, execution, supervision, documentation, and reporting of geotechnical investigation work. The handbook preserves the professional structure of the project source while adding child-friendly explanations, safety boundaries, 3D learning illustrations, real-world images, larger text, uniform captions, technical tables, checklists, material lists, maintenance frequencies, inspection records, and flow diagrams. The handbook covers site reconnaissance, investigation layout, borehole drilling, disturbed and undisturbed sampling, SPT and other in-situ tests, groundwater observations, laboratory testing, QA/QC, HSE, data management, reporting, detailed work execution, equipment and calibration, team responsibilities, schedule control, PPE, industrial-sector applications, specialized methods, calculation notes and worked examples, procurement control, ITP and field release, maintenance and reliability, equipment/material lifecycle, installation, construction, commissioning, and handover. Industrial applications include Oil & Gas, Petrochemical, Chemical, Power Plant, Water & Wastewater, Mining, Manufacturing, Offshore, and Infrastructure / Marine. The educational objective is to help young readers learn how engineers observe, record, compare, test, verify, communicate, and protect people and the environment while trained adults perform the hazardous activities. This edition is prepared as a professional print-ready Word master. Project users shall update controlled data and apply the latest approved project requirements before formal use.

Rp499.000
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Children

TEP-A310-08 FIREPROOFING FOR STEEL STRUCTURES HANDBOOK FOR CHILDREN

This handbook presents a comprehensive technical framework for passive fireproofing of structural steel. It explains fire exposure scenarios, steel thermal response, section factor, critical steel temperature, fire-resistance ratings and the use of tested system data for protection-thickness selection. The document reviews spray-applied cementitious fireproofing, epoxy and thin-film intumescent coatings, fire-resistant boards, concrete or mortar encasement, reinforcement, primers, sealers and topcoats. Requirements for compatibility, durability, weather resistance, chemical exposure, mechanical damage and corrosion control are addressed. Engineering and execution guidance covers design deliverables, fireproofing schedules, standard details, material specifications, procurement control, batch traceability, fabrication, preservation, transport, erection, field application, curing, thickness measurement, adhesion and density testing, defect assessment, repair, field release and commissioning. Worked examples and calculation notes demonstrate the relationship between member geometry, section factor, fire exposure, limiting steel temperature, required duration and certified thickness. Inspection and test plans, records, checklists, maintenance frequencies and industrial-sector application matrices are included for practical project use. The handbook emphasizes that final acceptance shall be based on the approved project specification and the complete certified system, supported by traceable documentation and competent inspection

Rp499.000
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Children

TEP-A227-07 FIRE FIGHTING SYSTEM HANDBOOK FOR CHILDREN

This expanded children’s handbook introduces the purpose, design basis, equipment, calculations, materials, construction, testing, commissioning, operation, maintenance, quality control, and documentation of fire fighting systems. It follows the organization and terminology of the professional TEP-A227-07 source handbook and presents each chapter through three learning pages. Page 1 — Understand • Child-friendly overview and learning outcomes. • Unique 3D or actual-like visual. • Big ideas, system path, safety, and new words. Page 2 — Explore • Source-based engineering discussion. • Basic theory, formula, and worked example. • Technical visual and design checkpoints. Page 3 — Apply • Design-to-maintenance lifecycle. • Material/procurement controls. • ITP, inspection, commissioning, and maintenance records. Industrial Applications • Oil & Gas, Petrochemical, Chemical, Power Plant, Water & Wastewater, Mining, Manufacturing, Offshore, and Infrastructure / Marine.

Rp499.000
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Children

TEP-A225-01 PREPARATION PFD FOR CHILDREN HANDBOOK

This handbook introduces Process Flow Diagrams (PFDs) through child-friendly explanations, colorful 3D learning illustrations, safe classroom activities and practical engineering examples. The content covers PFD fundamentals, design basis, process streams, major equipment, heat and material balance, utilities, process safety, review stages, standards and examples from oil and gas, power, chemical and water facilities. It is designed to help young learners understand how engineers organize information, follow material and energy flows, check consistency and communicate a process clearly. It is an educational reference and not a field operating manual.

Rp499.000
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Children

TEP-A212-01 HEALTH AND SAFETY PROCEDURE MANUAL HANDBOOK FOR CHILDREN

What the Handbook Covers This handbook presents thirty-one child-friendly chapters based on the professional TEP health and safety framework. Topics include safety leadership, laws and roles, contractor control, hazard identification, risk assessment, hierarchy of controls, task planning, permit to work, lockout/tagout, simultaneous operations, PPE, high-risk work, occupational health, emergencies, medical response, environmental care, weather, incident learning, assurance, competency, records and industry adaptation. Each chapter now also includes a dedicated 3D visual learning supplement combining a child-friendly scene, an actual workplace reference and an equipment-and-material safety lifecycle diagram. The central lesson is that safe work depends on verified barriers, competent adults, clear communication and the courage to stop when conditions are not right. Paperwork supports these controls but does not replace them. Twenty-one simplified appendices provide classroom worksheets, observation checklists and teacher-led exercises. They are learning aids only and are not operational permits or certificates.

Rp499.000
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Children

TEP-A211-02 SITE HSE MANAGEMENT HANDBOOK FOR CHILDREN

This 116-page handbook presents a professional child-friendly introduction to Site Health, Safety and Environment management based on the TEP-A211-02 technical handbook. It contains twenty-four chapters, unique chapter visuals, technical flow diagrams, supervised activities, calculation notes, equipment and material lists, inspection frequencies, lifecycle controls, records, forms, industry applications, a quiz, and an HSE pledge. The content covers HSE leadership, hazard identification, risk assessment, organization, Permit to Work, PPE, workplace control, work at height, lifting, excavation, confined spaces, electrical isolation, fire safety, heavy equipment, occupational health, environmental management, emergency response, incident learning, assurance, competency, safety in design, SIMOPS, digital HSE, and controlled documents. The intended outcome is awareness and respect for disciplined work control. It is not technical authorization. Project implementation must use approved current requirements and competent field verification.

Rp499.000
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Children

TEP-A150-03 PROJECT SCHEDULE EPC FOR CHILDREN

TEP-A150-03 for Children explains the complete EPC schedule journey from contract review and schedule basis through engineering, procurement, construction, commissioning, progress updates, risk, change, recovery and close-out. The handbook introduces schedule Levels 1 to 5, engineering deliverables, vendor packages, construction work fronts, commissioning systems, CPM logic, calendars, durations, resources, baselines and schedule quality in child-friendly English. Worked examples show physical progress, SPI and CPI, float, long-lead procurement, work-front readiness, P50 and P80 dates, change fragnets and recovery options. Mini activities encourage learners to draw networks, calculate durations and explain decisions. The professional reference framework remains based on the standards and recommended practices listed in this handbook. Adult users shall verify the latest edition and contractual applicability. Children shall use the concepts only in supervised learning activities.

Rp499.000
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Children

TEP-A140-10 PROJECT QUALITY PLAN FOR CHILDREN

This English children's handbook explains how a Project Quality Plan is created, approved, used, monitored, improved and closed. It keeps the professional EPC framework while presenting the main ideas through clear learning goals, colorful illustrations, simple explanations and practical evidence examples. The chapters cover quality objectives, organization, document hierarchy, design assurance, procurement, supplier control, inspection and test plans, material traceability, welding and NDE, construction disciplines, calibration, nonconformity, auditing, commissioning, digital records, training, logistics, sustainability and project closeout. Twenty-three appendices provide reusable registers, inspection forms, audit tools, dashboards, discipline checklists, calculation notes and self-assessment tools. Children should explore these templates with an adult mentor and use classroom examples rather than real project approvals. Standards status note: the technical reference baseline is retained from the source handbook. Project teams shall always reconfirm the current edition and contractual applicability before professional use.

Rp499.000
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Children

TEP-A130-01 PROJECT EXECUTION PLAN HANDBOOK FOR CHILDREN

This handbook presents a simplified English learning framework for understanding how engineering, procurement, construction, commissioning, and project management teams work together from project idea to final handover. The book follows a lifecycle approach. Children learn how teams define scope, organize roles, prepare designs, obtain materials, build safely, inspect quality, protect health and the environment, manage time and money, control risk and change, communicate through documents and reports, test completed systems, and capture lessons learned. The primary learning outputs are a mini project charter, RACI chart, simple schedule, risk register, budget, quality checklist, HSE risk assessment, progress report, and closeout package. These tools help children practice responsibility, evidence-based decisions, teamwork, and continuous improvement.

Rp499.000
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Electrical

TEP-A387-02 SACRIFICIAL ANODE CATHODIC PROTECTION HANDBOOK

This handbook presents an integrated engineering methodology for sacrificial-anode cathodic protection of buried and submerged metallic assets. It covers electrochemical principles, protection criteria, reference electrodes, magnesium/zinc/aluminium anode alloys, coating breakdown, soil and water resistivity, current-demand calculations, design-life charge balance, anode mass and current-output sizing, electrical continuity and isolation, interference control, application-specific design, detailed drawings, procurement, manufacturing QA, construction, commissioning, monitoring and maintenance. The document incorporates current standard references including ISO 15589-1:2026, ISO 15589-2:2024, AMPP SP0169-2024, DNV-RP-B401, DNV-RP-F103, API RP 651, ISO 12696:2022, ISO 21857:2021 and ISO 18086:2019. Original technical illustrations, worked examples, checklists and project forms are embedded throughout.

Rp499.000
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Electrical

TEP-A387-01 IMPRESSED CURRENT CATHODIC PROTECTION HANDBOOK

This handbook provides comprehensive guidance for impressed current cathodic protection systems applied to buried pipelines, tank bottoms, marine structures, water facilities and other metallic assets. It covers electrochemical principles, protection criteria, design basis, resistivity surveys, current-demand calculations, transformer-rectifier selection, impressed-current anodes, shallow and deep groundbeds, cables, test stations, reference electrodes, isolation, interference, remote monitoring, procurement, fabrication, construction, commissioning, operation, maintenance and troubleshooting. The document interfaces ICCP design with coating, pipeline and tank engineering, electrical power supply, earthing, hazardous-area classification, civil works, instrumentation, SCADA, asset integrity and document control. It provides calculation notes, worked examples, specifications, checklists, inspection and test plans, FAT forms, field release records, commissioning sheets, survey forms and maintenance matrices. Application sectors include Oil & Gas, Petrochemical, Chemical, Power Plant, Water & Wastewater, Mining, Manufacturing, Offshore, Infrastructure and Marine. The handbook emphasizes project-specific criteria, competent-person review, safe isolation, data quality, interference control, lifecycle records and continuous performance assurance.

Rp499.000
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Electrical

TEP-A386-02 COMMUNICATION SYSTEM DESIGN HANDBOOK

This handbook describes the engineering design of integrated industrial communication systems. It covers overall architecture, LAN/WAN, structured cabling, fiber optics, industrial Ethernet, telephony and VoIP, emergency telephones, public address and general alarm, radio communication, CCTV, access control, master clock, telecom rooms, power, earthing, hazardous area requirements, cybersecurity, third-party interfaces and lifecycle management. Technical calculation notes include fiber-optic link budget, radio path loss, CCTV storage, VoIP bandwidth, availability and power/autonomy concepts. Procurement, material specification, installation, inspection, FAT, SAT, commissioning, operation, maintenance, spares, configuration backup and handover requirements are included. The objective is to provide a consistent EPC workflow that produces measurable requirements, coordinated deliverables and objective acceptance evidence across industrial sectors.

Rp499.000
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Electrical

TEP-A382-05 POWER WIRING LAYOUT HANDBOOK

Power Wiring Layout Handbook Version 1.0 is a practical engineering reference for industrial and infrastructure power cable installations. It covers low-voltage, medium-voltage and associated DC power wiring where included by project scope. The handbook addresses design inputs, layout drawings, cable construction and sizing, trays, conduits, duct banks, trenches, segregation, EMC, fire and hazardous areas, equipment entries, glanding and termination, earthing and bonding, cable pulling, inspection, testing, commissioning, maintenance, fault investigation, templates and final close-out. Primary Objectives • Provide a consistent power wiring layout workflow from approved design inputs to as-built handover. • Reduce clashes, unsafe access, cable damage, overheating, electromagnetic interference and uncontrolled field changes. • Standardize review evidence, calculation interfaces, construction records, tests and final dossier requirements. • Support competency development while preserving project-specific engineering authority.

Rp499.000
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Electrical

TEP-A382-02 CABLE TRAY CALCULATION HANDBOOK

This handbook covers cable tray and cable ladder calculation for industrial power, control, instrumentation, communication, fire and fiber-optic systems. It provides design-basis guidance, fill and width methods, cable mass and line-load calculations, support reactions, bracket and trapeze checks, thermal and ampacity interfaces, earthing and bonding, cable cleats, expansion, vertical risers, route coordination and field release. Six worked examples demonstrate typical applications: LV multicore power tray sizing, instrument tray growth, divided tray allocation, MV single-core trefoil arrangement and cleat screening, trapeze support loading, and brownfield spare-capacity assessment. Editable templates are included for calculation inputs, cable schedules, tray segment summaries, support loads, reviews, field verification and final dossier control.

Rp499.000
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Electrical

TEP-A382-01 CABLE SIZE CALCULATION HANDBOOK

This handbook presents a comprehensive IEC-based methodology for low-voltage and medium-voltage fixed power-cable sizing for industrial, infrastructure, utility, marine, offshore, and process-plant applications. The handbook includes design-current calculation, ampacity determination, correction factors, voltage-drop assessment, motor-starting analysis, short-circuit withstand, protection coordination, neutral and protective-earth sizing, harmonic assessment, parallel cable arrangements, cable cleat considerations, material specification, inspection and test plans, maintenance procedures, and industrial application guidance.

Rp499.000
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Electrical

TEP-A381-11 UPS CAPACITY AND SPECIFICATION HANDBOOK

This handbook presents an integrated engineering method for defining, sizing, specifying, procuring, installing, testing, commissioning, operating, and maintaining industrial uninterruptible power supply systems. It covers critical-load assessment, real and apparent power, diversity and simultaneity, future growth, site derating, modular and parallel arrangements, N+1 and 2N architectures, battery autonomy, end-of-life factors, charger sizing, generator compatibility, bypass rating, protection coordination, earthing, HVAC, monitoring, cybersecurity interfaces, and lifecycle documentation. Worked examples, calculation sheets, technical data schedules, inspection and test plans, FAT/SAT checklists, maintenance frequencies, risk registers, bid-evaluation criteria, and industrial application guidance are included. The method is applicable to oil and gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, marine, infrastructure, data-center, and other critical facilities.

Rp499.000
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Electrical

TEP-A381-08 SWITCHGEAR SPECIFICATION HANDBOOK

This handbook provides a comprehensive technical basis for the specification and lifecycle management of low-voltage and medium-voltage switchgear used in industrial and infrastructure projects. It addresses equipment classification, service conditions, ratings, insulation coordination, short-circuit withstand, busbar design, circuit breakers, instrument transformers, enclosure construction, earthing, protection, control power, interlocking, arc-flash and internal-arc performance, automation, IEC 61850, SCADA, cybersecurity, auxiliary wiring and vendor documentation. Project-execution requirements include material and procurement control, inspection and test plans, factory acceptance testing, packing and preservation, receiving inspection, installation, site acceptance testing, commissioning, controlled energization and final handover. Lifecycle chapters cover operating discipline, preventive and condition-based maintenance, reliability management, troubleshooting, obsolescence and management of change. The handbook also includes calculation notes and worked examples, editable datasheets and schedules, protection and interlock matrices, inspection forms, field-release records, commissioning certificates, maintenance-frequency guidance and an industrial-sector application matrix for oil and gas, petrochemical, chemical, power, water and wastewater, mining, manufacturing, offshore, infrastructure and marine facilities. The requirements are intended to be tailored through the approved project standards register, system studies and vendor-specific verification evidence.

Rp499.000
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Electrical

TEP-A381-06 POWER TRANSFORMER SPECIFICATION HANDBOOK

Power Transformer Specification Handbook Version 1.0 provides a comprehensive framework for liquid-immersed power-transformer engineering and procurement. It covers application and system design basis; service conditions; transformer type; ratings; connections and earthing; tap changing; impedance and short-circuit duty; insulation coordination; core, winding, fluid and thermal design; tank, bushings and accessories; protection and monitoring; noise, fire and environmental requirements; losses and lifecycle cost; vendor documentation; manufacturing quality; inspection; factory tests; transport; installation; site acceptance; energization; operation and diagnostics. The handbook contains 33 technical chapters and six project-control appendices. The appendices include a project data sheet, guaranteed technical particulars, vendor document requirement list, ITP/FAT/SAT forms, alarm and I/O schedule, and technical bid/final acceptance tools. The primary reference framework is the IEC 60076 series with selected IEEE C57 guidance. The applicable code family and edition shall always be frozen by the project or purchase order. The handbook is intended for adaptation across utilities, power generation, oil and gas, petrochemical, LNG, mining, water, infrastructure and industrial facilities.

Rp499.000
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Electrical

TEP-A381-04 MOTOR SPECIFICATION AND DATA SHEET HANDBOOK

This handbook defines comprehensive requirements and standardized data-sheet practices for industrial low-voltage, medium-voltage, fixed-speed, variable-speed, hazardous-area, horizontal, vertical, synchronous, and special-purpose motors. The document addresses motor rating, efficiency, starting current, acceleration, torque, insulation, temperature rise, enclosure, cooling, bearings, terminal boxes, VFD compatibility, protection, inspection, factory testing, site commissioning, maintenance, repair, reliability, risk management, and lifecycle documentation. It also provides completed example data sheets, technical bid evaluation forms, calculation worksheets, FAT and SAT records, oil and gas project philosophy, troubleshooting decision trees, competency assessments, and controlled-document publication requirements.

Rp499.000
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Instrument

TEP-A374-02 DESIGN CRITERIA VALVE HANDBOOK

Design Criteria Valve Handbook Version 1.0 defines a comprehensive engineering framework for manual, check, actuated, control, emergency isolation and specialty valves used in oil and gas, petrochemical, chemical, power, water and wastewater, mining, manufacturing, offshore, infrastructure and marine facilities. The handbook covers valve function classification; gate, globe, ball, butterfly, plug, check and specialty valve criteria; pressure-temperature ratings; end connections; materials and trim; corrosion, erosion, cavitation and flashing; control-valve sizing; actuator torque and thrust; fail-safe philosophy; fugitive emissions; fire-safe and antistatic requirements; sour, hydrogen, cryogenic and oxygen service; slurry and abrasive service; noise and surge; accessibility; digital data; procurement; manufacturing; inspection; pressure and seat-leak testing; installation; commissioning; maintenance and reliability. The principal output is a traceable selection and acceptance process supported by datasheets, calculations, vendor documents, ITPs, test reports, commissioning records and lifecycle maintenance data. Worked examples and matrices are illustrative and require project-specific verification.

Rp499.000
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Instrument

TEP-A373-03 INSTRUMENT MEASUREMENT HANDBOOK

Instrument Measurement Handbook Version 1.0 provides a structured reference for the engineering, application, and lifecycle management of industrial measurement systems. It covers metrology, SI units, traceability, uncertainty, instrumentation symbols, analog and digital signals, pressure, differential pressure, temperature, thermowells, major flow technologies, level measurement, analytical instruments, gas detection, density, viscosity, moisture, weighing, force, vibration, speed, instrument selection, installation engineering, tubing, manifolds, hook-ups, cabling, grounding, hazardous areas, calibration, FAT, SAT, loop checking, commissioning, functional safety, reliability, smart instruments, cybersecurity, procurement, vendor documentation, and sector applications. Worked examples illustrate signal scaling, uncertainty combination, pressure-head correction, RTD conversion, thermowell screening, Reynolds number, differential-pressure flow, magnetic flow, turbine meter K-factor, hydrostatic level, radar distance, pH, detector response, loop voltage, intrinsic-safety entity checks, calibration error, proof-test coverage, and reliability metrics. Reusable forms support design reviews, inspection, calibration, field release, loop testing, commissioning, and maintenance. The handbook emphasizes fit-for-service selection, measurement-chain integrity, traceability, field accessibility, safe isolation, diagnostics, configuration management, and risk-based maintenance. It is applicable to oil and gas, petrochemical, chemical, power, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine facilities.

Rp499.000
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Instrument

TEP-A371-06 LOCAL PANEL CONTROL SYSTEM HANDBOOK

This handbook presents an integrated lifecycle approach for Local Panel Control Systems. It describes local and remote control authority, PLC and HMI design, power distribution, I/O, alarms, trips, permissives, interlocks, communication, MCC/VFD and actuator interfaces, functional safety interfaces, installation, FAT, SAT, proof testing, maintenance, cybersecurity, reliability, and final turnover. Worked calculation principles are included for power-supply sizing, UPS autonomy, panel thermal load, analog scaling, availability, spare I/O, and voltage drop. Comprehensive appendices provide templates for inspection, testing, commissioning, training, audit, and handover records.

Rp499.000
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Instrument

TEP-A371-05 CAUSE AND EFFECT CHART CONTROL SYSTEM HANDBOOK

Conceptual Instrumentation Handbook Version 1.0 presents a complete framework for instrumentation engineering during concept selection, pre-FEED, FEED and early EPC. It covers design basis, standards, project inputs, measurement and control philosophies, control and shutdown valves, DCS/PLC/SCADA, SIS/ESD, fire and gas, I/O estimation, networks, cybersecurity, power, instrument air, hazardous areas, field installation, cabling, control rooms, alarm management, package interfaces, procurement, constructability, inspection, commissioning, maintenance and industrial applications. The handbook includes worked project examples, screening calculations, material and procurement controls, ITPs, inspection forms, loop-check records, field-release forms, commissioning templates and design-review checklists. Original TEP diagrams illustrate each chapter. The document is intended to improve consistency, traceability and lifecycle value while making the limits of conceptual data explicit.  

Rp499.000
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Instrument

TEP-A371-04 FIRE AND GAS SYSTEM HANDBOOK

This professional handbook presents a vendor-neutral framework for Fire and Gas System engineering in industrial facilities. It covers the FGS role in process safety, applicable standards, hazard scenario definition, performance-based design, fire and gas mapping, detector technologies, detector placement, zoning, Cause and Effect, voting, controllers, I/O, power, cabinets, cables, HMI, interfaces, cybersecurity and response-time calculations. The execution chapters address technical specifications, procurement, fabrication, FAT, packing, receipt, installation, bump testing, calibration, SAT, commissioning, performance validation, operation, preventive maintenance, troubleshooting, impairment control, Management of Change, spare parts and obsolescence. Technical appendices provide project templates for the design basis, detector datasheets, I/O lists, C&E, mapping inputs, calculation sheets, inspection forms, FAT/SAT, calibration, commissioning, maintenance, impairments, MOC, audits, industrial-sector adaptation and handover.

Rp499.000
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Instrument

TEP-A370-10 CONCEPTUAL INSTRUMENTATION HANDBOOK

Conceptual Instrumentation Handbook Version 1.0 presents a complete framework for instrumentation engineering during concept selection, pre-FEED, FEED and early EPC. It covers design basis, standards, project inputs, measurement and control philosophies, control and shutdown valves, DCS/PLC/SCADA, SIS/ESD, fire and gas, I/O estimation, networks, cybersecurity, power, instrument air, hazardous areas, field installation, cabling, control rooms, alarm management, package interfaces, procurement, constructability, inspection, commissioning, maintenance and industrial applications. The handbook includes worked project examples, screening calculations, material and procurement controls, ITPs, inspection forms, loop-check records, field-release forms, commissioning templates and design-review checklists. Original TEP diagrams illustrate each chapter. The document is intended to improve consistency, traceability and lifecycle value while making the limits of conceptual data explicit.

Rp499.000
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Piping

TEP-A366-08 PIPING INFORMATION HANDBOOK

Piping Information Handbook Version 1.0 presents a complete framework for developing, controlling, validating, exchanging, and handing over piping engineering information across the full asset lifecycle. The handbook covers design inputs, line numbering, line lists, piping material classes, valve and specialty registers, P&ID extraction, plot plan and 3D model attributes, isometrics, spools, welds, material take-off, pipe supports, stress-analysis data, fabrication traceability, NDE records, inspection and test packs, construction redlines, as-built information, systemization, commissioning, CFIHOS and ISO 15926-aligned data exchange, integrity management, and management of change. Worked examples demonstrate completeness, reconciliation, schedule, dimensional, stress-interface, inspection, test, as-built, handover, and integrity metrics. The appendices provide practical forms and registers that can be adapted for oil and gas, petrochemical, chemical, power, water and wastewater, mining, manufacturing, offshore, infrastructure, and marine projects. The document is designed as a professional working reference for greenfield and brownfield EPC projects, owner-operator improvement programs, digital handover initiatives, and competency development.

Rp499.000
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Piping

TEP-A366-05 DESIGN GUIDE FOR PIPING ARRANGEMENT HANDBOOK

This handbook presents a structured design guide for piping arrangement in process plants, utilities, terminals, power facilities, water systems, mining facilities, manufacturing plants, offshore installations, marine facilities, and brownfield projects. It begins with design philosophy, codes, inputs, plot-plan interfaces, routing hierarchy, and piperack strategy. It then provides equipment-specific guidance for pumps, compressors, exchangers, air coolers, columns, vessels, heaters, tanks, packaged units, relief systems, drains, steam, cryogenic, slurry, sanitary, and high-energy services. The handbook integrates valve and instrument access, support design, stress-analysis feedback, thermal expansion, lifting, maintenance, safety zoning, 3D model review, fabrication, testing, brownfield tie-ins, digital data quality, review gates, calculation notes, material control, inspection forms, commissioning, and reliability. Worked examples and appendices provide practical templates for design review, field verification, stress interfaces, material procurement, inspection and test planning, hydrotest and reinstatement, start-up readiness, and maintenance inspection. The central principle is that piping arrangement is not cosmetic routing. It is a multidisciplinary engineering function that determines whether the plant can be built, operated, maintained, tested, modified, and kept safe throughout its life.

Rp499.000
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Piping

TEP-A366-03 PIPING DIMENSION HANDBOOK

Piping Dimension Handbook Version 1.0 provides a structured framework for selecting, calculating, coordinating, verifying, and recording piping dimensions throughout the complete facility lifecycle. The handbook addresses nominal pipe sizes, wall thicknesses, schedules, bores, fittings, flanges, valves, branches, supports, spools, equipment interfaces, layouts, clearances, underground systems, specialty piping, metrology, tolerance control, digital survey, construction, commissioning, reliability, modification, and final handover. It is applicable to oil and gas, petrochemical, chemical, power, water, wastewater, mining, manufacturing, offshore, marine, terminal, pharmaceutical, hydrogen, district-cooling, and infrastructure facilities.

Rp499.000
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Piping

TEP-A365-05 ANTI VIBRATION SUPPORT HANDBOOK

This handbook provides a structured engineering reference for anti-vibration support systems used in industrial plants, utilities, buildings, offshore facilities and marine infrastructure. It covers resilient supports, elastomeric mounts, steel springs, spring hangers, inertia bases, dampers, snubbers, flexible connectors, dynamic restraints and vibration-control pipe supports. Core analytical topics include natural frequency, damping, frequency ratio, transmissibility, dynamic stiffness, force transmission, six-axis motion, resonance avoidance, static deflection, load distribution and acceptance testing. The lifecycle chapters address design inputs, vendor data, material specification, fabrication, inspection, transport, storage, installation, construction, pre-commissioning, commissioning, condition monitoring and troubleshooting. Worked examples and forms are included so that the handbook can be used as a practical project tool. The standards reference section identifies representative international and industry documents that shall be checked against the latest project requirements before use. The expanded technical edition adds detailed design equations, equipment-specific calculation checks, procurement and fabrication controls, delivery and installation procedures, commissioning records, reliability tasks, and sector-specific application guidance for the complete project lifecycle.

Rp499.000
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Piping

TEP-A365-04 HEAT AND COLD INSULATION SUPPORT HANDBOOK

Heat and Cold Insulation Support Handbook Version 1.0 provides an integrated engineering framework for insulated piping and equipment supports in hot, cold, and cryogenic services. The handbook addresses heat transfer, condensation and dew point, insulation materials, pipe shoes and saddles, load-bearing inserts, vapor barriers, thermal bridges, movement and support spacing, structural calculations, CUI prevention, cladding, coating, procurement, fabrication, transport, site installation, ITP, inspection forms, commissioning, maintenance, repair, HSE, and industrial applications. Worked examples demonstrate heat-loss resistance, surface temperature, condensation control, support reaction, friction, insert bearing stress, thermal expansion, plate and weld checks, anchor-bolt actions, and span limits. The expanded technical appendices provide calculation templates, material specifications, procurement controls, ITP and field forms, commissioning records, maintenance procedures, reliability indicators, and sector-specific application matrices.

Rp499.000
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Piping

TEP-A364-07 STRAINER HANDBOOK

STRAINER HANDBOOK provides end-to-end engineering guidance for Y-type, basket, duplex, T-type, temporary, automatic, self-cleaning, magnetic, jacketed, sanitary, cryogenic, and special-service strainers. The document covers design basis, hydraulic sizing, mesh and basket engineering, materials, data sheets, procurement, fabrication, inspection, packaging, installation, commissioning, operation, maintenance, troubleshooting, HSE, industrial applications, worked examples, and standard project forms. Each chapter includes a dedicated three-dimensional engineering illustration and a representative field-installation visual. Appendices provide calculation worksheets, ITPs, inspection forms, commissioning records, maintenance forms, technical bid evaluation templates, and spare-parts controls.

Rp499.000
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Piping

TEP-A364-05 THERMOWELL HANDBOOK

This handbook presents a comprehensive engineering framework for the design, selection and lifecycle management of industrial thermowells. It covers straight, tapered and stepped profiles; threaded, flanged, weld-in and Van Stone connections; materials for general, corrosive, erosive, sour, chloride, high-temperature, offshore and special services; and the integration of RTD and thermocouple sensors. Technical content includes process-data definition, unsupported and insertion length, pressure and static strength concepts, vortex shedding, natural frequency, frequency ratio, damping and resonance avoidance, thermal response, measurement accuracy, fabrication and welding controls, NDE, pressure testing, procurement traceability, site installation, commissioning, maintenance and root-cause analysis. Worked examples and forms are provided for engineering training and project control. The handbook supports oil and gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, LNG, infrastructure and marine applications. It is intended to improve measurement reliability, pressure-boundary integrity, maintainability and consistency of project execution.

Rp499.000
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Piping

TEP-A363-02 STRESS ANALYSIS FOR PIPING SYSTEM HANDBOOK

This handbook provides an integrated professional reference for piping stress analysis in process plants, power facilities, terminals, offshore installations, utilities and industrial systems. It covers design-basis development, code stress categories, material properties, model geometry, sustained and thermal analysis, occasional and dynamic loads, supports, spring hangers, equipment nozzle loads, expansion joints, fatigue, vibration, buried piping, non metallic piping, offshore movement, local stress, quality control, construction verification and commissioning. The technical expansion adds an advanced equation compendium, nine transparent worked examples, component-level procurement requirements, inspection and field-release forms, and risk-based maintenance and reliability procedures.

Rp499.000
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Piping

TEP-A362-03 PIPING CALCULATION PROCEDURE HANDBOOK

Piping Calculation Procedure Handbook Version 1.0 provides a practical, calculation-centered framework for process and utility piping. The handbook covers scope definition, codes and standards, fluid-property preparation, line sizing, velocity limits, pressure-drop and hydraulic analysis, pump suction and NPSH, gas and steam flow, thermal expansion and flexibility, pipe stress, support design, testing, documentation, maintenance and industrial applications. The appendices provide standardized calculation sheets and worked examples for pressure thickness, branch reinforcement, flange joints, bolting and torque, support and nozzle loads, hydrostatic and pneumatic testing, material procurement, MTC/PMI traceability, inspection test plans, field release, punch-list closure and reliability planning. The handbook is designed to support consistent calculations, independent checking, technical review, procurement, fabrication, installation, commissioning and lifecycle integrity management across Oil & Gas, Petrochemical, Chemical, Power Plant, Water & Wastewater, Mining, Manufacturing, Offshore and Infrastructure/Marine projects

Rp499.000
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Mechanical

TEP-A340-10 VACUUM EQUIPMENT HANDBOOK

This handbook provides an integrated engineering reference for vacuum equipment used in oil and gas, refinery, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, infrastructure and marine facilities. It explains vacuum terminology, pressure ranges, gas-flow regimes, pressure measurement, equipment classification and technology-selection criteria. Design sections address process data, gas load, air leakage, condensable vapour, pump-down time, effective pumping speed, piping conductance, motor power, seal-liquid heat balance, cavitation, materials, corrosion, instrumentation, control logic and package layout. Execution sections cover requisitioning, vendor review, fabrication, inspection, testing, preservation, transportation, installation, alignment, pre-commissioning, start-up and performance acceptance. Operation and reliability sections include routine surveillance, preventive and predictive maintenance, troubleshooting, failure analysis, spare parts and competency requirements. Appendices provide calculation examples, datasheet templates, material-selection guidance, inspection and test plans, commissioning checklists, operating logs and maintenance forms.

Rp499.000
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Mechanical

TEP-A340-08 LIQUID SURGE ANALYSIS HANDBOOK

Liquid surge, also described as hydraulic transient or water hammer, is the time-dependent response of a pressurized liquid system to a change in momentum. The response may include high pressure, sub-atmospheric pressure, flow reversal, vapor cavities, gas compression, valve slam and rapidly varying mechanical loads. This handbook presents the governing equations, wave-speed calculation, Method of Characteristics, pump and valve dynamics, cavitation modeling, sensitivity analysis and pressure acceptance criteria. It then develops practical protection methods using surge vessels, relief and anticipation valves, air valves, vacuum breakers, VFD ramps, controlled valve movement and operating procedures. Engineering lifecycle coverage includes design basis, input-data control, procurement, material specification, fabrication, inspection, delivery, installation, pre-commissioning, commissioning, field validation, maintenance and troubleshooting. Application guidance is provided for oil and gas, petrochemical, chemical, power, water and wastewater, mining, manufacturing, offshore, infrastructure and marine systems.

Rp499.000
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Mechanical

TEP-A340-07 HYDRAULIC HANDBOOK

Hydraulic Handbook Version 1.0 presents a structured engineering reference for industrial hydraulic systems. The handbook covers fluid power fundamentals; fluid selection; pumps, reservoirs, cylinders, motors, valves, accumulators, piping, hoses, seals, filtration and thermal control; hydraulic power-unit and circuit design; engineering documentation; fabrication and quality control; testing, transportation, installation, flushing and commissioning; operation, maintenance, troubleshooting, safety, industrial applications and smart monitoring. The technical method emphasizes auditable design calculations, lifecycle interfaces and acceptance evidence. Worked relationships address force, speed, displacement, torque, power, pressure loss, reservoir dwell time, accumulator gas law, filtration efficiency and heat balance. Values shown are instructional examples and shall be replaced by approved project data. Applicable reference families include hydraulic system safety, fluid power vocabulary and symbols, fluid classification, contamination coding, filter performance, component cleanliness, measurement methods and energy-efficient system design. Project specifications, legal requirements and vendor limits remain controlling.

Rp499.000
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Mechanical

TEP-A340-06 GAS TURBINE HANDBOOK

Gas Turbine Handbook Version 1.0 presents an integrated reference for industrial gas turbines used in power generation, mechanical drive, cogeneration, offshore and remote applications. It covers thermodynamics, compressor and turbine aerodynamics, combustion, hot-section materials, fuel systems, lubrication, controls, fire protection, emissions, driven-equipment integration, foundations, performance correction, degradation, combined cycle, procurement, manufacturing, testing, delivery, installation, commissioning, operation and overhaul. The technical approach emphasizes clearly defined system boundaries, corrected performance, design margins, equipment interfaces, quality gates and objective acceptance evidence. Practical tables, checklists, formulas and worked examples are provided to support design reviews, vendor evaluations, inspection planning, commissioning and reliability improvement. The handbook aligns conceptually with API 616 for petroleum and process-industry gas-turbine services, the ISO 3977 procurement series, ASME PTC 22 for gas-turbine performance testing, ASME PTC 46 for overall plant performance and NFPA 37 for installation and fire-hazard controls. Applicable editions and project requirements shall be verified at the start of each project.

Rp499.000
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Mechanical

TEP-A340-05 FAN AND BLOWER HANDBOOK

This handbook presents end-to-end engineering guidance for centrifugal fans, axial fans, mixed-flow fans, rotary-lobe blowers, screw blowers, multistage centrifugal blowers and regenerative blowers. It explains flow, pressure, density, performance curves, fan laws, duct resistance, equipment selection, absorbed power, mechanical design, materials, vibration, noise and control. The document includes calculation notes, worked examples, procurement controls, material requirements, inspection and test plans, field-release forms, commissioning check sheets, maintenance schedules, troubleshooting matrices and industrial application guidance. Special attention is given to actual versus standard flow, system effects, stable operating range, driver sizing, alignment, cleanliness, baseline condition monitoring and evidence-based acceptance. Applications cover oil and gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, marine and infrastructure facilities. Each chapter includes a dedicated equipment-only 3D engineering visual and practical quality controls. Project teams should supplement these visuals with approved vendor or site photographs when available.

Rp499.000
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Mechanical

TEP-A340-04 GAS EXPANDER HANDBOOK

This handbook provides an integrated reference for gas expander and turboexpander systems used for refrigeration, natural-gas liquids recovery, cryogenic processing, pressure letdown and energy recovery. It covers thermodynamics, phase behavior, aerodynamic sizing, wheel and shaft design, casing, bearings, seals, rotordynamics, load devices, oil systems, controls, overspeed protection, instrumentation, materials, piping interfaces, manufacturing, inspection, FAT, construction, commissioning, operation, maintenance and industrial applications.

Rp499.000
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Mechanical

TEP-A330-09 INLINE MIXING HANDBOOK

Inline Mixing Handbook Version 1.0 provides an end-to-end technical reference for pipe-mounted mixing systems. It covers static mixers, dynamic inline mixers, injection devices, flow regimes, rheology, pressure drop, mixing performance, scale-up, CFD, materials, mechanical design, procurement, fabrication, inspection, construction, commissioning, operation, maintenance and reliability. Core calculations include velocity, Reynolds number, local pressure loss, hydraulic power, additive dosing, coefficient of variation, residence time and screening calculations for laminar and turbulent static mixer applications. Worked examples demonstrate how performance targets and pressure-drop limits are converted into design decisions. The handbook includes integrated equipment visuals and original technical schematics, material and application matrices, ITP and inspection forms, installation and commissioning checklists, maintenance schedules, troubleshooting guides, method-statement controls, a typical S-curve and a deliverable register. It is intended to improve consistency, safety, traceability and lifecycle performance across engineering and field execution.

Rp499.000
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Mechanical

TEP-A330-07 REFRIGERATED STORAGE TANK HANDBOOK

This handbook provides an integrated reference for the engineering and lifecycle management of aboveground refrigerated liquefied-gas storage tank systems. It addresses product properties, containment concepts, capacity, heat ingress, boil-off gas, pressure and vacuum design, low-temperature materials, primary and secondary containment, roofs, foundations, frost-heave protection, insulation, piping connections, relief systems, instrumentation, fire and gas protection and hazardous-area electrical design. Project-execution chapters cover detailed engineering, procurement, fabrication, transportation, field erection, welding, NDE, hydrostatic and leak testing, drying, inerting, cooldown, first fill, performance testing and handover. Operating chapters cover routine transfer, inspection, reliability, troubleshooting, emergencies and remaining-life assessment. Technical appendices provide calculation frameworks, material controls, ITP examples, commissioning forms, maintenance frequencies and standards registers. The handbook is written in English and formatted for A4 portrait use as a practical engineering reference. It intentionally avoids reproducing copyrighted code text and instead identifies the engineering decisions that must be demonstrated using the full governing standards and approved project documentation.

Rp499.000
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Mechanical

TEP-A330-06 HIGH PRESSURE STORAGE TANK HANDBOOK

High Pressure Storage Tank Handbook Version 1.0 establishes a structured engineering framework for pressurized storage vessels and associated systems. It covers configuration selection, design basis, construction codes, process safety, pressure-temperature-load cases, materials, mechanical design, nozzles, supports, foundations, relief and depressurization, piping interfaces, instrumentation, fabrication, welding, NDE, pressure testing, coatings, transportation, installation, commissioning, operation, inspection, RBI, fitness-for-service, maintenance, repair, failure learning, and industrial applications. Technical appendices provide preliminary calculation notes, procurement controls, inspection and test plans, installation and commissioning checklists, maintenance procedures, industrial-sector matrices, data-sheet templates, references, definitions, and final document-quality checks. The document is arranged in A4 portrait format with chapter-specific engineering visualizations, practical tables, and field-oriented forms.

Rp499.000
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Mechanical

TEP-A330-04 DRUM ENGINEERING HANDBOOK

This handbook provides an integrated reference for industrial drum engineering from concept selection through decommissioning. It addresses phase equilibrium, physical properties, vessel orientation, two-phase and three-phase separation, knockout and flare drums, compressor scrubbers, reflux and surge drums, steam and utility drums, slug handling, inlet devices, mist eliminators, liquid residence, level bands, nozzles, special services, pressure-vessel design, materials, fabrication, NDE, instrumentation, process safety, procurement, installation, commissioning, operation, maintenance and industrial applications.

Rp499.000
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Mechanical

TEP-A330-03 TOWER ENGINEERING HANDBOOK

This handbook provides an integrated reference for industrial tower engineering from concept selection through decommissioning. It addresses phase equilibrium, balances, distillation, absorption, stripping, trays, packing, distributors, hydraulics, diameter and height, feed devices, demisters, pressure-vessel design, wind and seismic response, materials, corrosion, fabrication, NDE, instrumentation, process safety, relief and vacuum protection, procurement, transportation, erection, commissioning, operation, inspection, maintenance and industrial applications.

Rp499.000
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Mechanical

TEP-A330-02 REACTOR ENGINEERING HANDBOOK

REACTOR ENGINEERING HANDBOOK provides an integrated reference for industrial reactor engineering from concept selection through decommissioning. It combines reaction theory, fundamental design equations, worked calculation notes, material and corrosion specifications, fabrication and welding controls, inspection forms and ITPs, pressure testing, delivery and lifting, installation and construction, commissioning, operation, maintenance, reliability and industrial applications. The document is intended as a practical training and engineering-review reference; final project work shall use verified data, approved procedures and the governing code and contract requirements.

Rp499.000
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Civil

TEP-A325-01 STAIRWAY AND LADDER HANDBOOK

Stairway and Ladder Handbook provides an integrated methodology for industrial stairways, fixed ladders, portable ladders, special stairs, platforms, guardrails, handrails, toe plates, gates, supports and associated safety systems. The handbook contains design criteria, geometry relationships, structural checks, corrosion-protection guidance, 3D coordination practices, fabrication and welding controls, transport and erection requirements, inspection and commissioning forms, maintenance procedures and industrial application matrices.

Rp499.000
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Civil

TEP-A321-03 SHOP FABRICATION STEEL HANDBOOK

Shop Fabrication Steel Handbook provides practical requirements for structural-steel material receiving, traceability, shop detailing, cutting, drilling, forming, fit-up, welding, structural bolting, dimensional inspection, trial assembly, NDT, weld repair, abrasive blasting, painting, galvanizing, nonconformance control, final release, packing, transportation, site support, HSE, production planning, equipment reliability, and industrial application. The handbook contains worked calculations, inspection checklists, records lists, an inspection and test plan, fabrication forms, maintenance procedures, and a sector application matrix. It is intended to be adapted into project-specific controlled procedures and forms.

Rp499.000
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Civil

TEP-A316-05 PREPARATION OF UNDERGROUND FACILITY DESIGN HANDBOOK

This handbook defines a systematic method for preparing underground facility design on EPC and industrial projects. It covers underground piping, firewater networks, drainage and sewer systems, electrical and instrument cable systems, earthing grids, duct banks, trenches, manholes, valve pits, underground tanks, chambers, crossings, corrosion protection, waterproofing and associated civil works. The method integrates site surveys, geotechnical and hydrogeological data, design loads, system operating requirements, code compliance, routing philosophy, minimum clearances, hydraulic and structural calculations, material specifications, 3D coordination, construction sequencing, inspection and testing. Particular attention is given to interfaces between disciplines and to conditions that frequently cause rework, including uncertain existing utilities, congested corridors, groundwater, settlement, pipe flotation, insufficient access, incompatible levels and late routing changes. The handbook establishes the design basis as the controlling link between project inputs and engineering outputs. It describes registers, review gates, calculation-note expectations, compliance matrices and change-control practices required to demonstrate that underground designs are based on verified information and approved assumptions. The expected result is a coordinated package of drawings, models, calculations, specifications, material requisitions, inspection and test plans, construction records, commissioning dossiers and as-built asset data. When applied correctly, the process reduces underground clashes, improves construction productivity, supports safe excavation and installation, and provides operations personnel with reliable records for inspection, repair and future modification. Abstract classification

Rp499.000
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Civil

TEP-A310-08 FIREPROOFING FOR STEEL STRUCTURES HANDBOOK

This handbook presents a comprehensive technical framework for passive fireproofing of structural steel. It explains fire exposure scenarios, steel thermal response, section factor, critical steel temperature, fire-resistance ratings and the use of tested system data for protection-thickness selection. The document reviews spray-applied cementitious fireproofing, epoxy and thin-film intumescent coatings, fire-resistant boards, concrete or mortar encasement, reinforcement, primers, sealers and topcoats. Requirements for compatibility, durability, weather resistance, chemical exposure, mechanical damage and corrosion control are addressed. Engineering and execution guidance covers design deliverables, fireproofing schedules, standard details, material specifications, procurement control, batch traceability, fabrication, preservation, transport, erection, field application, curing, thickness measurement, adhesion and density testing, defect assessment, repair, field release and commissioning. Worked examples and calculation notes demonstrate the relationship between member geometry, section factor, fire exposure, limiting steel temperature, required duration and certified thickness. Inspection and test plans, records, checklists, maintenance frequencies and industrial-sector application matrices are included for practical project use. The handbook emphasizes that final acceptance shall be based on the approved project specification and the complete certified system, supported by traceable documentation and competent inspection.

Rp499.000
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Process

TEP-A231-02 FLARE AND BLOWDOWN SYSTEM HANDBOOK

This handbook presents an integrated engineering framework for flare and blowdown systems used in oil and gas, refinery, petrochemical, chemical, LNG, power, offshore and other process facilities. It covers relief and depressuring scenarios; flare-network architecture; compressible and multiphase hydraulics; dynamic depressuring and low-temperature assessment; knock-out drums and seals; elevated, ground and enclosed flare arrangements; flare tips, pilots, ignition and purge; instrumentation, ESD, SIS and fire-and-gas integration; radiation, dispersion, noise, smoke and emissions; materials, corrosion, mechanical, electrical, structural and civil design; procurement, fabrication, construction, commissioning, operation and maintenance. Calculation notes provide simplified screening equations for ideal-gas blowdown, surge volume, point-source radiation and hydraulic verification. The appendices include material-control requirements, an inspection and test plan, field-release and commissioning forms, maintenance routines, an industrial-sector matrix, datasheet prompts, checklists, registers, glossary and reference list. The handbook is aligned conceptually with API 520, API 521, API 526, API 537, API RP 576, ISO 23251 and IEC 61511, together with the project-specified pressure-vessel, piping, structural, electrical, environmental and local regulatory requirements. It does not replace controlled copies of those documents.

Rp499.000
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Civil

TEP-A225-04 DESIGN CRITERIA FOR P & ID PREPARATION HANDBOOK

This handbook defines professional criteria for preparing and maintaining P&IDs for process and utility facilities. It covers document purpose, applicable standards, drawing layout, equipment and line identification, valves and specialty items, instrumentation and control, safety-instrumented functions, relief and disposal systems, package units, utility interfaces, operability, HAZOP, multidiscipline coordination, quality control, revision management and intelligent P&ID data exchange. The technical approach is based on clear information ownership, controlled symbol and tag libraries, reconciliation with engineering registers, risk-based reviews and traceable change management. The handbook includes worked screening calculations, material and procurement interfaces, inspection and commissioning forms, maintenance and reliability practices, and an industrial-sector matrix for Oil & Gas, Petrochemical, Chemical, Power, Water & Wastewater, Mining, Manufacturing, Offshore and Infrastructure / Marine applications. The expected result is a readable, consistent and auditable P&ID set that supports safe design, procurement, fabrication, construction, commissioning, operation, maintenance and future modification.

Rp499.000
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Process

TEP-A223-04 PROCESS DATA PREPARATION HANDBOOK

Process Data Preparation Handbook defines a complete method for preparing, checking, approving and maintaining process engineering data. It covers project design basis, feed and product specifications, stream data, thermodynamic methods, heat and material balances, utility balances, equipment datasheets, hydraulics, control and analyzer requirements, relief and depressuring data, process safety inputs, diagram consistency, vendor-data integration, commissioning information and digital handover. The handbook combines theory, equations, worked examples, material and procurement controls, inspection and test plans, field-release forms, maintenance and reliability procedures, and an industrial-sector application matrix. Quality gates and master registers are used to maintain traceability from source documents to approved deliverables.

Rp499.000
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Process

TEP-A223-01 DESIGN CONDITION HANDBOOK

Design Condition Handbook defines the methodology for identifying, validating, approving, applying, verifying, and revising physical, process, environmental, mechanical, structural, electrical, instrumentation, safety, construction, commissioning, operational, and maintenance design parameters. It integrates 30 technical chapters and 10 appendices containing practical registers, data sheets, calculation forms, inspection records, commissioning certificates, maintenance templates, sector matrices, and design-review checklists.

Rp499.000
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Process

TEP-A220-03 PROCESS ENGINEERING PROCEDURE HANDBOOK

This handbook defines a complete Process Engineering procedure for proposal, conceptual design, FEED, detailed engineering, procurement, construction support, pre-commissioning, commissioning, start-up and operating support. It establishes requirements for design-basis development, simulation, heat and material balance, BFD/PFD/P&ID preparation, equipment sizing, hydraulics, heat transfer, utilities, pressure relief, flare and drain systems, control philosophy, process safety, environmental data, datasheets, quality control and handover. The appendices provide calculation-note structures, design criteria, datasheet fields, review forms, HAZOP records, commissioning checklists, sector matrices, standards references and a technical glossary. The governing principles are traceability, proportional rigor, independent verification, interdisciplinary integration, controlled change and explicit transfer of residual risk.

Rp499.000
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HSE

TEP-A212-02 HSE SYSTEM PROCEDURE HANDBOOK

This handbook describes a complete HSE system procedure for managing occupational health, safety, process-safety interfaces and environmental risk. It begins with system scope, policy, legal compliance, organization, planning and risk assessment; proceeds through operational controls such as permit to work, isolation, contractor management, design HSE, occupational health, emergency response and high-risk work; and concludes with assurance, performance measurement, management review and document control. Detailed appendices provide reusable templates for HSE policy, HIRA/JSA, environmental aspect assessment, permit to work, lockout/tagout, toolbox talks, inspections, incident investigation, emergency drills, training matrices, KPI calculations, contractor evaluation and audit. Worked examples demonstrate risk scoring and performance calculations. The handbook is designed for multi-sector application in oil and gas, petrochemical, chemical, power generation, water and wastewater, mining, manufacturing, offshore, marine and infrastructure projects. It emphasizes lifecycle risk reduction, worker participation, critical-control verification and evidence-based continual improvement.

Rp499.000
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HSE

TEP-A212-01 HEALTH AND SAFETY PROCEDURE MANUAL HANDBOOK

This handbook presents an integrated health and safety procedure framework for industrial engineering and project execution. The content covers governance, legal compliance, contractor management, hazard identification, risk assessment, hierarchy of controls, job safety analysis, permit to work, lockout / tagout, simultaneous operations, PPE, work at height, lifting, confined space, hot work, excavation, electrical safety, traffic, pressure testing, chemical safety, occupational health, emergency response, medical readiness, environmental controls, heat stress, incident investigation, assurance, training and project close-out. The central operating principle is that high-risk work is controlled through verified physical and organizational barriers rather than paperwork alone. Each activity requires a clear scope, competent people, current risk assessment, effective isolation or engineering control, field verification, active supervision, defined stop-work triggers, emergency readiness and traceable close-out evidence. The manual includes technical illustrations, calculation notes, risk and control tables, and twenty-one controlled appendices covering the forms and registers most commonly required for project HSE management. The final industrial-sector matrix supports adaptation across oil and gas, petrochemical, chemical, power, water, mining, manufacturing, offshore, marine and infrastructure projects.

Rp499.000
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Project Management

TEP-A140-10 PROJECT QUALITY PLAN HANDBOOK

This handbook provides a complete framework for establishing, reviewing, approving, implementing, monitoring, revising and closing a Project Quality Plan. It aligns project quality planning with internationally recognized quality-management and project-management guidance while retaining flexibility for client, statutory, industry and corporate requirements. The handbook covers project context, quality objectives, organization and authority, document hierarchy, design assurance, procurement quality, supplier prequalification, vendor surveillance, inspection and test plans, material traceability, special processes, discipline construction controls, calibration, NCR/CAR, auditing, commissioning, turnover, digital records, competence, cost of quality, climate relevance and continuous improvement. Twenty-three appendices provide reusable registers, inspection forms, audit tools, quality dashboards, discipline checklists, compliance assessment tools and worked calculations. The templates are deliberately generic and must be tailored to the specific contract and risk profile. Standards status note: the reference baseline is verified as at 15 July 2026. ISO 9001:2015 with Amendment 1:2024 remains the current published requirements standard pending the expected next edition; ISO 19011:2026 is used for current audit guidance. Project teams shall reconfirm status before contractual use.

Rp499.000
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Project Management

TEP-A140-06 PROJECT REPORTING PROCEDURE HANDBOOK

Project Reporting Procedure Handbook provides a complete guide for preparing, reviewing, approving, issuing, and controlling project reports. It covers daily, weekly, monthly, executive, engineering, procurement, construction, commissioning, schedule, cost, HSE, quality, risk, issue, action, dashboard, and close-out reporting. The handbook includes technical tables, checklists, calculation notes, material and procurement controls, inspection forms, field release forms, commissioning forms, maintenance and reliability procedures, industrial sector applications, and visual reporting guidance.

Rp499.000
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Electrical

TEP-A380-09 ELECTRICAL CONSTRUCTION HANDBOOK

This handbook provides a comprehensive engineering reference for the planning, installation, inspection, testing, commissioning, and life-cycle management of industrial electrical construction. It covers electrical construction practices, cable installation, earthing and bonding, equipment installation, hazardous area construction, quality control, safety management, engineering documentation, testing, commissioning, and handover. Intended for EPC projects and industrial facilities, it supports the safe, reliable, and efficient execution of electrical construction while ensuring compliance with applicable standards, technical specifications, and project requirements.

Rp499.000
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Project Management

TEP-A140-04 PROJECT COORDINATION PROCEDURE HANDBOOK

This handbook provides a comprehensive engineering reference for the planning, coordination, monitoring, and life-cycle management of project execution activities. It covers project coordination procedures, scope, schedule, cost, quality, HSE, engineering deliverables, procurement, construction, commissioning, interface management, change control, reporting, and project close-out. Intended for EPC projects and industrial facilities, it supports the safe, reliable, and efficient execution of projects while ensuring compliance with applicable standards, technical specifications, and project requirements.

Rp499.000
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Process

TEP-A224-01 RESTRICTION ORIFICE HANDBOOK

This handbook provides a comprehensive engineering reference for the design, sizing, selection, installation, inspection, operation, maintenance, and life-cycle management of Restriction Orifices (RO). It covers restriction orifice principles, hydraulic design, pressure drop analysis, cavitation and noise evaluation, material selection, mechanical configuration, engineering documentation, testing, commissioning, troubleshooting, and maintenance. Intended for EPC projects and industrial facilities, it supports the safe, reliable, and efficient implementation of restriction orifice systems while ensuring compliance with applicable standards, technical specifications, and project requirements.

Rp499.000
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Instrument

TEP-A375-02 SPECIFICATION ANALYZER HANDBOOK

This handbook provides a comprehensive engineering reference for the analysis, verification, review, and life-cycle management of engineering specifications for industrial projects. It covers specification analysis, document hierarchy, standards and code compliance, material and equipment verification, vendor document review, interface management, quality assurance, engineering documentation, compliance reporting, and project close-out. Intended for EPC projects and industrial facilities, it supports the accurate, reliable, and consistent implementation of engineering specifications while ensuring compliance with applicable standards, technical specifications, and project requirements.

Rp499.000
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Electrical

TEP-A382-12 ELECTRICAL BULK MATERIAL DATA SHEET AND SPECIFICATION

This handbook provides a comprehensive engineering reference for the specification, selection, documentation, and life-cycle management of electrical bulk materials for industrial facilities. It covers electrical bulk material classification, cable systems, cable trays, conduits, cable glands, junction boxes, earthing and lightning protection materials, lighting installation materials, engineering documentation, vendor documentation, inspection, material traceability, and project handover. Intended for EPC projects and industrial facilities, it supports the safe, reliable, and efficient implementation of electrical bulk materials while ensuring compliance with applicable standards, technical specifications, and project requirements.

Rp499.000
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Instrument

TEP-A376-02 MONITORING SYSTEM INSTRUMENT HANDBOOK

The handbook emphasizes a lifecycle approach. Detector selection and placement are linked to hazard identification, process layout, ventilation, environmental conditions, response time, accessibility, and alarm action. Alarm logic is treated as an engineered safety function requiring clear ownership, testing, bypass control, and traceable documentation.

Rp499.000
Thumbnail for TEP-A385-01 FIRE ALARM AND GAS DETECTION SYSTEM HANDBOOK
Electrical

TEP-A385-01 FIRE ALARM AND GAS DETECTION SYSTEM HANDBOOK

This handbook provides a comprehensive engineering reference for the design, implementation, operation, maintenance, and life-cycle management of Fire Alarm and Gas Detection Systems. It covers fire and gas detection technologies, alarm philosophy, control systems, hazardous area requirements, functional safety integration, engineering documentation, testing, commissioning, maintenance, and HSE practices. Intended for EPC projects and industrial facilities, it supports the safe, reliable, and efficient implementation of fire and gas detection systems while ensuring compliance with applicable standards, technical specifications, and project requirements.

Rp499.000
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Civil

TEP-A313-01 ANCHOR BOLTS HANDBOOK

This handbook provides a comprehensive engineering reference for the design, selection, installation, inspection, maintenance, and life-cycle management of anchor bolt systems for industrial and structural foundations. It covers anchor bolt components, load transfer principles, material selection, embedment, grouting, corrosion protection, quality assurance, engineering documentation, installation, and field inspection. Intended for EPC projects and industrial facilities, it supports the safe, reliable, and efficient implementation of anchor bolt systems while ensuring compliance with applicable standards, technical specifications, and project requirements.

Rp499.000
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Civil

TEP-A319-02 MARINE FACILITY HANDBOOK

This handbook provides a comprehensive engineering reference for the planning, design, construction, commissioning, operation, maintenance, and life-cycle management of marine facilities. It covers marine structures, berthing and mooring systems, loading and unloading facilities, dredging, shore protection, utilities, fire protection, engineering documentation, inspection, reliability, and integrity management. Intended for EPC projects and industrial facilities, it supports the safe, reliable, and efficient implementation of marine infrastructure while ensuring compliance with applicable standards, technical specifications, and project requirements.

Rp499.000
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Mechanical

TEP-A350-01 BOILER HANDBOOK

This handbook provides a comprehensive engineering reference for the design, operation, inspection, maintenance, and life-cycle management of industrial boiler systems. It covers boiler principles, heat transfer, steam generation, combustion systems, feedwater chemistry, corrosion prevention, engineering documentation, inspection, troubleshooting, reliability, and maintenance. Intended for EPC projects and industrial facilities, it supports the safe, reliable, and efficient operation of boiler systems while ensuring compliance with applicable standards, technical specifications, and project requirements.

Rp499.000
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Piping

TEP-A367-02 PIPING MATERIAL ENGINEERING HANDBOOK

This handbook provides a comprehensive engineering reference for the design, specification, selection, procurement, and life-cycle management of piping materials for industrial facilities. It covers piping material selection, piping classes, pipes, fittings, flanges, valves, bolting, gaskets, corrosion control, welding requirements, material certification, procurement engineering, quality assurance, and engineering documentation. Intended for EPC projects and industrial facilities, it supports the safe, reliable, and efficient implementation of piping material systems while ensuring compliance with applicable standards, technical specifications, and project requirements.

Rp499.000
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Civil

TEP-A314-01 PILE LOAD TEST HANDBOOK

This handbook provides a comprehensive engineering reference for the planning, execution, inspection, analysis, and life-cycle management of pile load testing for deep foundation systems. It covers pile load test principles, static and dynamic testing methods, reaction systems, instrumentation, calibration, field execution, data analysis, quality assurance, engineering documentation, HSE requirements, and reporting. Intended for EPC projects and industrial facilities, it supports the safe, reliable, and efficient execution of pile load testing while ensuring compliance with applicable standards, technical specifications, and project requirements.

Rp499.000
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Piping

TEP-A364-03 FLANGE ENGINEERING HANDBOOK

This handbook provides a comprehensive engineering reference for the design, selection, procurement, installation, inspection, testing, maintenance, and life-cycle management of flange systems for industrial piping and equipment. It covers flange types, pressure ratings, material selection, gasket and bolting systems, joint assembly, leak prevention, quality assurance, engineering documentation, troubleshooting, and integrity management. Intended for EPC projects and industrial facilities, it supports the safe, reliable, and efficient implementation of flange systems while ensuring compliance with applicable standards, technical specifications, and project requirements.

Rp499.000
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Instrument

TEP-A374-04 SAFETY RELIEF VALVE HANDBOOK

This handbook provides a comprehensive engineering reference for the design, selection, sizing, installation, inspection, testing, operation, maintenance, and life-cycle management of Safety Relief Valves (SRVs). It covers overpressure protection principles, relief load evaluation, valve sizing, piping design, material selection, engineering documentation, commissioning, troubleshooting, reliability, and HSE practices. Intended for EPC projects and industrial facilities, it supports the safe, reliable, and efficient implementation of pressure relief systems while ensuring compliance with applicable standards, technical specifications, and project requirements.

Rp499.000
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Civil

TEP-A317-00 PERIMETER FENCE ENGINEERING HANDBOOK

This handbook provides a comprehensive engineering reference for the design, construction, inspection, operation, maintenance, and life-cycle management of perimeter fence systems for industrial facilities. It covers fence types, material selection, foundations, gates, access control interfaces, corrosion protection, quality assurance, engineering documentation, commissioning, and maintenance. Intended for EPC projects and industrial facilities, it supports the safe, reliable, and efficient implementation of perimeter protection systems while ensuring compliance with applicable standards, technical specifications, and project requirements.

Rp499.000
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Civil

TEP-A311-02 SOIL INVESTIGATION HANDBOOK

This handbook provides a comprehensive engineering reference for the planning, execution, supervision, documentation, and life-cycle management of soil investigation works. It covers site investigation planning, borehole drilling, sampling, in-situ and laboratory testing, groundwater observation, geotechnical evaluation, quality assurance, engineering documentation, HSE requirements, and reporting. Intended for EPC projects and industrial facilities, it supports the safe, reliable, and efficient execution of soil investigation activities while ensuring compliance with applicable standards, technical specifications, and project requirements.

Rp499.000
Thumbnail for TEP-A223-02 PROCESS MATERIAL SELECTION HANDBOOK
Process

TEP-A223-02 PROCESS MATERIAL SELECTION HANDBOOK

This handbook provides a comprehensive engineering reference for the selection, specification, evaluation, and life-cycle management of process materials for industrial facilities. It covers material selection principles, materials of construction, corrosion control, metallic and non-metallic materials, coatings, linings, claddings, engineering documentation, quality assurance, material verification, and procurement support. Intended for EPC projects and industrial facilities, it supports the safe, reliable, and efficient implementation of process material selection while ensuring compliance with applicable standards, technical specifications, and project requirements.

Rp499.000
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Mechanical

TEP-A330-05 ATMOSPHERIC STORAGE TANK HANDBOOK

This handbook provides a comprehensive engineering reference for the design, construction, inspection, testing, commissioning, operation, maintenance, and life-cycle management of atmospheric storage tanks. It covers storage tank principles, fixed roof and floating roof tanks, tank components, material selection, fire protection, instrumentation, engineering documentation, quality assurance, inspection, reliability, and maintenance. Intended for EPC projects and industrial facilities, it supports the safe, reliable, and efficient implementation of atmospheric storage tank systems while ensuring compliance with applicable standards, technical specifications, and project requirements.

Rp499.000
Thumbnail for TEP-A211-02 SITE HEALTH, SAFETY AND ENVIRONMENT (HSE) HANDBOOK
HSE

TEP-A211-02 SITE HEALTH, SAFETY AND ENVIRONMENT (HSE) HANDBOOK

This handbook provides a comprehensive engineering reference for the planning, implementation, monitoring, and life-cycle management of Site Health, Safety, and Environment (HSE) activities. It covers HSE governance, risk management, permit-to-work systems, occupational health, environmental protection, contractor management, inspection, auditing, emergency preparedness, incident investigation, engineering documentation, performance monitoring, and project close-out. Intended for EPC projects and industrial facilities, it supports the safe, reliable, and efficient execution of site activities while ensuring compliance with applicable standards, technical specifications, regulatory requirements, and project HSE objectives.

Rp499.000
Thumbnail for TEP-A316-01 DRAINAGE SYSTEM HANDBOOK
Civil

TEP-A316-01 DRAINAGE SYSTEM HANDBOOK

This handbook provides a comprehensive engineering reference for the planning, design, construction, inspection, commissioning, operation, maintenance, and life-cycle management of industrial drainage systems. It covers drainage philosophy, hydrologic and hydraulic design, surface grading, road and building drainage, culverts, sumps, pumped drainage, erosion and sediment control, quality assurance, engineering documentation, environmental protection, and maintenance. Intended for EPC projects and industrial facilities, it supports the safe, reliable, and efficient implementation of drainage systems while ensuring compliance with applicable standards, technical specifications, and project requirements.

Rp499.000
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Instrument

TEP-A371-02 EMERGENCY SHUT DOWN SYSTEM HANDBOOK

This handbook provides a comprehensive engineering reference for the design, implementation, operation, maintenance, and life-cycle management of Emergency Shutdown Systems (ESD). It covers ESD philosophy, system architecture, shutdown hierarchy, cause and effect logic, field sensors, logic solvers, final elements, system interfaces, bypass management, engineering documentation, testing, commissioning, proof testing, troubleshooting, and management of change. Intended for EPC projects and industrial facilities, it supports the safe, reliable, and efficient implementation of Emergency Shutdown Systems while ensuring compliance with applicable standards, technical specifications, and project requirements.

Rp499.000
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Piping

TEP-A361-01 PIPING ENGINEERING HANDBOOK

This handbook provides a comprehensive engineering reference for the design, procurement, fabrication, construction, inspection, testing, commissioning, operation, maintenance, and life-cycle management of industrial piping systems. It covers piping design principles, material selection, pipes, fittings, flanges, valves, stress analysis, plant layout, engineering calculations, fabrication, welding, quality assurance, engineering documentation, testing, commissioning, integrity management, and maintenance. Intended for EPC projects and industrial facilities, it supports the safe, reliable, and efficient implementation of piping systems while ensuring compliance with applicable standards, technical specifications, and project requirements.

Rp499.000
Thumbnail for TEP-A340-04 STEAM TURBINE HANDBOOK
Mechanical

TEP-A340-04 STEAM TURBINE HANDBOOK

This handbook provides a comprehensive engineering reference for the design, installation, operation, maintenance, and life-cycle management of steam turbine systems. It covers steam turbine principles, steam systems, mechanical design, lubrication, control and protection systems, installation, commissioning, inspection, condition monitoring, reliability, and maintenance. Intended for EPC projects and industrial facilities, it supports the safe, reliable, and efficient operation of steam turbine systems while ensuring compliance with applicable standards, technical specifications, and project requirements.

Rp499.000
Thumbnail for TEP-A384-01 GENERAL EARTHING AND LIGHTNING PROTECTION HANDBOOK
Electrical

TEP-A384-01 GENERAL EARTHING AND LIGHTNING PROTECTION HANDBOOK

This handbook provides a comprehensive engineering reference for the design, installation, inspection, testing, commissioning, and life-cycle management of general earthing and lightning protection systems. It covers protective, system, functional, instrument, and telecommunication earthing, lightning and surge protection, grounding systems, static bonding, engineering documentation, inspection, maintenance, and verification. Intended for EPC projects and industrial facilities, it supports the safe, reliable, and efficient implementation of earthing and lightning protection systems while ensuring compliance with applicable standards, technical specifications, and project requirements.

Rp499.000
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Instrument

TEP-A371-01 DISTRIBUTED CONTROL SYSTEM (DCS) HANDBOOK

This handbook provides a comprehensive engineering reference for the design, configuration, operation, maintenance, and life-cycle management of Distributed Control Systems (DCS). It covers DCS architecture, controllers, I/O systems, industrial communication networks, control strategies, HMI, historian, alarm management, functional safety interfaces, cybersecurity, engineering documentation, testing, commissioning, and maintenance. Intended for EPC projects and industrial facilities, it supports the safe, reliable, and efficient implementation of Distributed Control Systems while ensuring compliance with applicable standards, technical specifications, and project requirements.

Rp499.000
Thumbnail for TEP-A227-07 FIRE FIGHTING SYSTEM HANDBOOK
Process

TEP-A227-07 FIRE FIGHTING SYSTEM HANDBOOK

This handbook provides a comprehensive engineering reference for the design, specification, installation, inspection, testing, commissioning, operation, maintenance, and life-cycle management of industrial Fire Fighting Systems. It covers fire water systems, hydrants, monitors, sprinklers, deluge systems, foam systems, gaseous suppression systems, portable fire extinguishers, fire alarm and fire & gas integration, hydraulic design, engineering documentation, and maintenance. Intended for EPC projects and industrial facilities, it supports the safe, reliable, and efficient implementation of fire fighting systems while ensuring compliance with applicable standards, technical specifications, and project requirements.

Rp499.000
Thumbnail for TEP-A384-04 EARTHING PHILOSOPHY AND SPECIFICATION HANDBOOK
Electrical

TEP-A384-04 EARTHING PHILOSOPHY AND SPECIFICATION HANDBOOK

This handbook provides a comprehensive engineering reference for the design, specification, installation, inspection, testing, commissioning, and life-cycle management of industrial earthing systems. It covers system earthing, protective earthing, lightning protection, instrument and telecommunication earthing, bonding, grounding grid design, conductor and electrode selection, soil resistivity testing, earth resistance measurement, engineering documentation, and maintenance. Intended for EPC projects and industrial facilities, it supports the safe, reliable, and efficient implementation of earthing systems while ensuring compliance with applicable standards, technical specifications, and project requirements.

Rp499.000
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Instrument

TEP-A377-06 INSTRUMENT WORK HANDBOOK

This handbook provides a comprehensive engineering reference for the planning, installation, inspection, testing, commissioning, operation, maintenance, and life-cycle management of industrial instrumentation work. It covers field instrumentation, control valves, instrument cabling, tubing, junction boxes, panels, intrinsic safety, hazardous area installation, calibration, loop checking, engineering documentation, quality assurance, mechanical completion, and handover. Intended for EPC projects and industrial facilities, it supports the safe, reliable, and efficient execution of instrumentation work while ensuring compliance with applicable standards, technical specifications, and project requirements.

Rp499.000
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Process

TEP-A225-01 PREPARATION PROCESS FLOW DIAGRAM

This handbook provides a comprehensive engineering reference for the development, review, and life-cycle management of Process Flow Diagrams (PFDs) for industrial facilities. It covers process design principles, process flow development, heat and material balance, process equipment, utility systems, process safety, engineering documentation, interdisciplinary coordination, document review, and revision control. Intended for EPC projects and industrial facilities, it supports the accurate, reliable, and efficient preparation of Process Flow Diagrams while ensuring compliance with applicable standards, technical specifications, and project requirements.

Rp499.000
Thumbnail for TEP-A383-01 LIGHTING FIXTURE SPECIFICATION AND DATA SHEET HANDBOOK
Electrical

TEP-A383-01 LIGHTING FIXTURE SPECIFICATION AND DATA SHEET HANDBOOK

This handbook provides a comprehensive engineering reference for the specification, selection, installation, testing, commissioning, and life-cycle management of lighting fixtures for industrial facilities. It covers normal and emergency lighting, hazardous area luminaires, photometric requirements, electrical characteristics, fixture construction, engineering documentation, inspection, maintenance, and reliability. Intended for EPC projects and industrial facilities, it supports the safe, reliable, and efficient implementation of lighting systems while ensuring compliance with applicable standards, technical specifications, and project requirements.

Rp499.000
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Instrument

TEP-A374-01 CONTROL VALVE HANDBOOK

This handbook provides a comprehensive engineering reference for the design, sizing, selection, installation, operation, maintenance, and life-cycle management of industrial control valve systems. It covers control valve principles, sizing methodologies, valve and trim selection, actuator and accessory configuration, material selection, process control integration, engineering documentation, testing, commissioning, diagnostics, troubleshooting, and maintenance. Intended for EPC projects and industrial facilities, it supports the safe, reliable, and efficient implementation of control valve systems while ensuring compliance with applicable standards, technical specifications, and project requirements.

Rp499.000
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Process

TEP-A230-02 AIR COOLED HEAT EXCHANGER HANDBOOK

This handbook provides a comprehensive engineering reference for the design, selection, installation, operation, maintenance, and life-cycle management of Air Cooled Heat Exchangers (ACHE). It covers heat transfer principles, thermal and mechanical design, finned tubes, fans and motors, structural supports, piping, instrumentation, electrical integration, inspection, commissioning, troubleshooting, reliability, and maintenance. Intended for EPC projects and industrial facilities, it supports the safe, reliable, and efficient implementation of air cooled heat exchanger systems while ensuring compliance with applicable standards, technical specifications, and project requirements.

Rp499.000
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Mechanical

TEP-A340-01 PUMPS HANDBOOK

This handbook provides a comprehensive engineering reference for the design, selection, installation, operation, maintenance, and life-cycle management of industrial pumps and pumping systems. It covers hydraulic principles, pump technologies, mechanical systems, engineering design, piping integration, instrumentation, engineering documentation, inspection, testing, commissioning, reliability, troubleshooting, and energy optimization. Intended for EPC projects and industrial facilities, it supports the safe, reliable, and efficient implementation of pump systems while ensuring compliance with applicable standards, technical specifications, and project requirements.

Rp499.000
Thumbnail for TEP-A382-08 AGITATED VESSEL HANDBOOK
Mechanical

TEP-A382-08 AGITATED VESSEL HANDBOOK

This handbook provides a comprehensive engineering reference for the design, selection, fabrication, installation, operation, maintenance, and life-cycle management of agitated vessel systems. It covers process mixing principles, vessel and impeller design, mechanical systems, heat transfer, material selection, engineering documentation, inspection, testing, commissioning, reliability, troubleshooting, and life-cycle optimization. Intended for EPC projects and industrial facilities, it supports the safe, reliable, and efficient implementation of agitated vessel systems while ensuring compliance with applicable standards, technical specifications, and project requirements.

Rp499.000
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Mechanical

TEP-A333-01 COMPRESSOR HANDBOOK

This handbook provides a comprehensive engineering reference for the design, selection, installation, operation, maintenance, and life-cycle management of industrial compressor systems. It covers compressor principles, centrifugal and positive displacement compressors, package systems, process integration, control and safety systems, engineering documentation, inspection, testing, commissioning, reliability, troubleshooting, and asset integrity. Intended for EPC projects and industrial facilities, it supports the safe, reliable, and efficient implementation of compressor systems while ensuring compliance with applicable standards, technical specifications, and project requirements.

Rp499.000
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Civil

TEP-A321-07 ERECTION STEEL STRUCTURE

This handbook presents a comprehensive steel structure erection guide for industrial and EPC project environments. It covers the practical sequence of structural steel work including design philosophy, steel materials, structural components, engineering documents, fabrication, construction planning, erection equipment, rigging engineering, bolting, welding, alignment, grouting, corrosion protection, quality control, safety, inspection, commissioning support, maintenance and appendices. The content emphasizes the connection between engineering requirements and field execution. Each volume explains the purpose of the activity, major technical controls, typical risks, QA/QC checks, safety interfaces and deliverables required to complete steel erection work in a controlled and auditable manner. The handbook is suitable for use as a training reference, engineering checklist, construction planning aid and project execution support document. It is not intended to replace approved project specifications, certified calculations or statutory requirements.

Rp499.000
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Electrical

TEP-A381-09 MOTOR CONTROL SYSTEM AND DATA SHEET HANDBOOK

This handbook provides a comprehensive engineering reference for the design, specification, operation, maintenance, and life-cycle management of industrial motor control systems and motor datasheets. It covers motor control principles, motor starters, motor control centers (MCC), variable frequency drives (VFD), protection systems, PLC, DCS, SCADA, HMI integration, engineering documentation, testing, commissioning, and maintenance. Intended for EPC projects and industrial facilities, it supports the safe, reliable, and efficient implementation of motor control systems while ensuring compliance with applicable standards, technical specifications, and project requirements.

Rp499.000
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Piping

TEP-A365-01 PIPE SUPPORT HANDBOOK

This handbook provides a comprehensive engineering reference for the design, selection, fabrication, installation, inspection, operation, maintenance, and life-cycle management of pipe support systems. It covers pipe support types, load and stress considerations, thermal expansion, vibration control, structural interfaces, corrosion protection, engineering documentation, quality assurance, commissioning, integrity management, and maintenance. Intended for EPC projects and industrial facilities, it supports the safe, reliable, and efficient implementation of pipe support systems while ensuring compliance with applicable standards, technical specifications, and project requirements.

Rp499.000
Thumbnail for TEP-A323-02 PILE FOUNDATION DESIGN HANDBOOK
Civil

TEP-A323-02 PILE FOUNDATION DESIGN HANDBOOK

This handbook provides a comprehensive engineering reference for the design, analysis, construction, inspection, testing, and life-cycle management of pile foundation systems. It covers geotechnical evaluation, pile selection, axial and lateral load analysis, settlement assessment, pile cap design, construction methods, quality assurance, engineering documentation, load testing, integrity testing, and maintenance considerations. Intended for EPC projects and industrial facilities, it supports the safe, reliable, and efficient implementation of pile foundation systems while ensuring compliance with applicable standards, technical specifications, and project requirements.

Rp499.000
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Instrument

TEP-A371-03 CONTROL SYSTEM HANDBOOK

This handbook provides a comprehensive engineering reference for the design, configuration, operation, maintenance, and life-cycle management of Distributed Control Systems (DCS). It covers DCS architecture, control strategies, industrial communication networks, human-machine interfaces, alarm management, functional safety integration, cybersecurity, commissioning, testing, maintenance, and system reliability. Intended for EPC projects and industrial facilities, it supports the safe, reliable, and efficient implementation of DCS solutions while ensuring compliance with applicable standards, technical specifications, and project requirements.

Rp499.000
Thumbnail for TEP-A380-02 HAZARDOUS AREA CLASSIFICATION STUDY HANDBOOK
Electrical

TEP-A380-02 HAZARDOUS AREA CLASSIFICATION STUDY HANDBOOK

This handbook provides a comprehensive engineering reference for the planning, assessment, implementation, and life-cycle management of Hazardous Area Classification (HAC) in industrial facilities. It covers hazardous area classification principles, source-of-release assessment, ventilation analysis, Zone and Division classification, Ex equipment selection, engineering documentation, quality assurance, and management of change. Intended for EPC projects and industrial facilities, it supports the safe, reliable, and compliant classification of hazardous areas while ensuring adherence to applicable standards, technical specifications, and project requirements.

Rp499.000
Thumbnail for TEP-A340-01 PUMPS HANDBOOK
Mechanical

TEP-A340-01 PUMPS HANDBOOK

This handbook provides a comprehensive engineering reference for the selection, design, operation, maintenance, and life-cycle management of industrial pumps and pumping systems. It covers hydraulic principles, pump types, mechanical components, engineering design, procurement, installation, commissioning, operation, maintenance, reliability, troubleshooting, and energy optimization. Intended for EPC projects and industrial facilities, it supports the safe, reliable, and efficient implementation of pump systems while ensuring compliance with applicable standards, technical specifications, and project requirements.

Rp499.000