Turbo Machineries Operation & Maintenance
2026-06-17 08:30 - 2026-06-19 16:00 (Asia/Krasnoyarsk) | Bandung, Jawa Barat, Indonesia
BACKGROUND:
Turbomachinery merupakan mesin yang berhubungan dengan transfer energi antara fluida (termasuk liquid & gases ) & rotor (rotating shaft ). Turbomachinery yang menyerap energi (add energy) dikategorikan sebagai:

pumps family (pumps, compressor,
fan, blower
dan yang melepas energi (extract energy) dikategorikan turbine.

Mesin yang berfungsi untuk memindahkan energi antara poros dengan fluida (liquid atau gas) sering disebut dengan Turbomachinery). Ini merupakan peralatan yang canggih dan kompleks banyak sekali dipakai untuk memenuhi kebutuhan proses industri migas, petrokimia & industri berat lainnya, secara ekonomis. Dengan fungsinya yang vital dan selalu menjadi tulang punggung sebuah plant, maka perlu untuk terus mengetahui kondisi mesin untuk melindungi dari shutdown, kerugian, dan kerusakan serta agar mesin mesin tersebut dapat bekerja secara optimal.
Oleh karena itu, untuk mendukung semua itu diperlukan tenaga pelaksana yang mumpunni dibidangnya, minimal dalam skala operasional sehari-hari.
OBJECTIVES:
Diharapkan setelah pelatihan turbomachinery, peserta:

Mampu mengidentifikasi bagian bagian utama dari turbo machinery
Memahami prinsip kerja turbomachinery
Mengetahui prosedur operasi yang efektif
Mengetahui instrumentasi dan kontrol pada turbomachinery
Memahami peralatan pendukung turbomachinery
Mampu menganalisis problem seperti kavitasi, surging, vibrasi
Mampu mengatasi problem yang terjadi
Mengetahui prosedur perawatan

COURSE OUTLINE:
Turbin gas

Prinsip kerja turbin gas
Komponen komponen utama (kompresor, ruang bakar, turbin gas, rotor, sudu rotor)
Prosedur operasi pada turbin gas
Prestasi atau unjukkerja pada turbin gas
Peralatan pendukung pada turbin gas (sistem starting, sistem pelumasan, sistem bahan bakar, sistem udara pemasukan )
Chooking fenomena, surging, dan vibrasi pada turbin gas
Instrumentasi dan control
Trouble shooting pada turbin gas
Perawatan pada turbin gas

Turbin Uap

Komponen komponen pada turbin uap
Prosedur operasi
Prestasi turbin uap
Sistem pelumasan pada turbin uap
Instrumentasi, kontrol dan peralatan proteksi pada turbin uap
Trouble shooting
Prinsip kerja turbin uap

Pompa dan Kompresor

Prinsip kerja pompa dan kompresor
Komponen komponen pompa dan kompresor
Prosedur operasi pompa dan kompresor
Prestasi pompa dan kompresor
Chooking fenomena, surging, kavitasi dan vibrasi pada pompa dan kompresor
Instrumentasi dan control
Trouble shooting
Perawatan pada pompa dan kompresor

WHO SHOULD ATTEND:

Electric Engineer/ Supervisor/ Superintendent
Power Plant Maintenance Engineer/ Supervisor/ Superintendent
Power Plant Operation Engineer/ Supervisor/ Superintendent
Everybody or professional who wants to broaden knowledge or gain Benefit from this course

TRAINER:
Ir. Parno Raharjo, MSc, Phd,
Public Training berikutnya : 18 – 20 November, 2026

Onshore Facilities Infrastructure, Design, Constructions & Operation Optimization
2026-06-17 08:30 - 2026-06-19 16:00 | Jakarta
DESCRIPTION:
Onshore oil and gas facilities are among the most complex systems in the energy sector. These facilities require a skilled and competent team to implement fully integrated approaches throughout the entire lifecycle—from initial studies and design planning to construction, startup operations, and ongoing post-commissioning processes.
A crucial part of this lifecycle includes conducting thorough post-startup reviews, optimization efforts, and effective asset integrity management to ensure that assets remain available and reliable. These practices not only enhance operational efficiency but also contribute to overall safety in the workplace.
This advanced training session is designed to cover various aspects, including essential technical components such as design, as well as broader topics like construction management, contract management, and asset management. Participants will gain insights into how to navigate the complexities of onshore operations effectively.
OBJECTIVES:
After completing this training, participants will gain:

A solid understanding of essential codes and regulations governing the industry.
Assurance that the site and routing of facilities adhere to all requirements.
The ability to apply mechanical and physical principles to piping, hydraulics, and material selection.
Skills to implement Safety in Design principles effectively.
Techniques for identifying unique design constraints specific to onshore facilities.
The capability to conduct comprehensive post-commissioning reviews and recommend actionable improvements.
Knowledge of best practices in Operation and Asset Integrity Management.

LEARNING SYLLABUS:

Overview of industry codes and regulations
Key elements of feasibility studies
Site Survey and Right of Way (RoW) determination
Mechanical and process design fundamentals
System sizing and design considerations
Equipment selection criteria and methods
Safety in Design overview
Stages of construction and effective contract management
Post-production design review and optimization strategies
Operation and Asset Integrity/Reliability Management practices

TARGETED PARTICIPANTS:
This training is specifically aimed at Process, Pipeline & Project Engineers, Operation & Maintenance Supervisors, Regulatory & Compliance personnel, and others looking to enhance their skills in the oil and gas industry. It is designed for individuals eager to expand their knowledge in planning, construction, startup, post-production, and asset management of onshore oil and gas facilities.
TRAINER:
Ir. Agus Ibrahim – Trainer and field practitioner with nearly 30 years of experience in the oil and gas sector.
Experienced with years of exemplary project management and contract in Oil & Gas infrastructure as well as mining/mineral infrastructure with an emphasis on scope, schedule, quality and HSE requirements to the best industry practice for engineering, fabrication and construction. Understandings critical requirements of both greenfield and brownfields project development from concept to execution. Passionate about manages and integrate of widely diverse technical and multi-cultural teams.
Excellent administration and management skills, including strategic planning, leadership, resource allocation, coordinating staff, exceptional critical thinking and analytical skills.
Well understand the project needs of both Contractor’s perspective and Company’s project life cycle perspective.
Public Training berikutnya : 13 – 15 Oktober, 2026 | 9 – 11 Desember, 2026

Turbo Machinery Operation & Maintenance
2026-06-17 08:30 - 2026-06-19 16:00 | Bandung, Jawa Barat, Indonesia
Background & About the Course
Rotating equipment or those may be simmply called as a group as Turbo Machinaries is widely used in various industries and plays a vital role in end-to-end production operations. Mastering the principles of rotating equipment is essential for effective maintenance and operational efficiency. Identifying failure modes and monitoring symptoms of failure are crucial for establishing an effective maintenance program.
This course begins with an overview of rotating equipment, including definitions, types, primary functions, and general characteristics related to performance. It then delves into specific types of rotating equipment: pumps, compressors, turbines, and fans/blowers, covering their classifications, performance characteristics, and common failure modes. The training also addresses alignment, balancing, and predictive maintenance techniques for rotating equipment.
Course Objectives
Participants will:

Refresh their knowledge of the functions and general characteristics of rotating equipment.
Understand the classification and performance characteristics of pumps, compressors, turbines, and fans/blowers.
Evaluate the performance of rotating equipment effectively.
Identify anomalies and failure modes in rotating equipment.
Conduct alignment and balancing procedures.
Implement appropriate predictive maintenance strategies for rotating equipment.

Who Should Attend
Recommended Participants:

Engineers and Equipment Operators
Technicians
Maintenance and Workshop Technicians
Quality Control Engineers

Course Outline

Overview of Rotating Equipment: Types, Functions, and General Characteristics
Pumps: Classification, Performance Characteristics, and Common Failure Modes
Compressors: Classification, Performance Characteristics, and Common Failure Modes
Turbines: Classification, Performance Characteristics, and Common Failure Modes
Fans/Blowers: Classification, Performance Characteristics, and Common Failure Modes
Introduction to Alignment and Balancing
Summary of Rotating Equipment Failure Modes
Predictive Maintenance for Rotating Equipment
Troubleshooting Analysis
Methods for Testing Equipment Performance
Equipment Installation Requirements
Equipment Log Book Management
Operation Manual and Parts Book Overview

About the Course Leader
I. Parno Rahajo, M.Sc., Ph.D.
Public Training berikutnya : 18 – 20 November, 2026

Analisa dan Evaluasi Perencanaan Strategi Pemeliharaan Pembangkit
2026-06-17 20:30 - 2026-06-19 16:00 | Bandung, Jawa Barat, Indonesia
BACKGROUND & ABOUT THE COURSE:
Analisa dan Evaluasi Perencanaan Strategi pemeliharaan ini harus dilakukan secara kontinyu untuk menghasilkan keandalan pembangkit. Bagaimana menganalisis kegiatan pemeliharaan juga harus dilakukan untuk menjaga keandalan unit pembangkit. Ini bisa dicapai kalau teknisi memiliki pemahaman pemeliharaan pembangkit, bagaimana mengelola pemeliharaan yang tepat, dan selalu melakukan analisis pemeliharaan.
Oleh karena itu dalam training ini Analisa dan Evaluasi Perencanaan Strategi Pemeliharaan Pembangkit akan diajarkan bagaimana agar mengelola pemeliharaan unit pembangkit dapat dilakukan dengan lebih baik.
TRAINING OBJECTIVES:
Dengan mengikuti pelatihan ini diharapkan para peserta pelatihan mampu:

Memahami sistem pembangkit
Memahami prinsip kerja / operasi sistem pembangkit
Memahami konsep & tujuan pemeliharaan
Membuat strategi / kebijakan pemeliharaan pembangkit
Memperbaiki perencanaan dan scheduling pemeliharaan pembangkit
Memahami failure mode & effect analysis dan melaksanakan FMEA untuk meminimalkan failure
Melakukan Root Cause Analysis & mengihindarkan/meminimalkan penyebab failure di kemudian hari

WHO SHOULD ATTEND:

Manajer Pemeliharaan: Bertanggung jawab atas pengelolaan strategi pemeliharaan di pembangkit listrik.
Supervisor Operasi dan Pemeliharaan: Berperan dalam pelaksanaan dan pengawasan aktivitas pemeliharaan.
Teknisi dan Engineer Pemeliharaan: Terlibat langsung dalam implementasi rencana pemeliharaan.
Tim Perencanaan dan Evaluasi Pemeliharaan: Membutuhkan pemahaman mendalam tentang analisis dan evaluasi strategi pemeliharaan.
Professional Keandalan Mesin (Reliability Professionals): Ingin meningkatkan efektivitas perencanaan untuk mengurangi downtime dan meningkatkan efisiensi pembangkit.
Konsultan atau Auditor Pemeliharaan: Yang mengevaluasi kinerja pemeliharaan di sektor pembangkit.

COURSE CONTENT:

Sistem pembangkit
Konsep dan tujuan Pemeliharaan
Strategi / kebijakan pemeliharaan

perawatan terencana dan tidak terencana
perawatan preventive
perawatan predictive
penggantian

Maintenance budget
Maintenance planning & scheduling
Failure mode & effect analysis
Root cause analysis
Pengawasan dalam perencanaan pemeliharaan
Pengawasan dalam prosedur pemeliharaan

Tata kelola pemeliharaan unit pembangkitan yang sistematis merupakan hal penting dalam menjalankan seluruh proses bisnis untuk meningkatkan kinerja perusahaan sekaligus meningkatkan daya saing. Tata kelola pemeliharaan pembangkitan yang dilakukan secara efektif dapat menjadikan perusahaan terdepan dalam bidang pembangkitan. Pemahaman proses tata kelola pemeliharaan sistem pembangkit harus dilakukan secara rasional dan ekonomis dengan memperhatikan mutu dan keandalan, sehingga unit bisa beroperasi secara optimum.
ABOUT THE COURSE LEADER:
Drs. Maridjo, ST, MM
Public Training berikutnya : 5 – 7 Oktober, 2026 | 1 – 3 Desember, 2026

RAMS (Reliability, Availability, Maintainability & Safety)
2026-06-22 08:00 - 17:00 | Jawa Barat
Background:
Dalam industri modern—khususnya manufaktur, energi, transportasi, dan infrastruktur—kinerja sistem dan aset tidak hanya diukur dari kemampuan beroperasi, tetapi juga dari keandalan (Reliability), ketersediaan (Availability), kemudahan pemeliharaan (Maintainability), serta keselamatan (Safety). Konsep RAMS menjadi pendekatan terintegrasi untuk memastikan sistem mampu beroperasi secara optimal, aman, dan berkelanjutan sepanjang siklus hidupnya (life cycle).

Penerapan RAMS yang baik membantu organisasi dalam:
Mengurangi downtime dan kegagalan sistem
Menekan biaya siklus hidup aset
Meningkatkan keselamatan kerja dan kepatuhan regulasi
Mendukung pengambilan keputusan berbasis risiko dan data teknis

Objectives:
Setelah mengikuti training ini, peserta diharapkan mampu:

Memahami konsep dan prinsip dasar RAMS secara terintegrasi.
Menganalisis keandalan dan ketersediaan sistem menggunakan pendekatan kuantitatif dan kualitatif.
Mengidentifikasi faktor-faktor maintainability dan dampaknya terhadap performa aset.
Mengintegrasikan aspek keselamatan (safety) dalam desain, operasi, dan pemeliharaan sistem.
Menerapkan konsep RAMS dalam studi kasus industri nyata untuk peningkatan kinerja dan keselamatan aset.

Recommended Participants:
Training ini direkomendasikan untuk:

Engineer (Maintenance, Reliability, Safety, Production, Asset)
Supervisor dan Manager Maintenance / Engineering
Reliability Engineer & Asset Management Professional
HSE Officer dan Safety Engineer
Project Engineer & Design Engineer
Profesional industri yang terlibat dalam pengelolaan aset dan sistem teknis

Course Outline
Fundamental RAMS & Reliability Analysis

Pengenalan RAMS dan perannya dalam manajemen aset
Konsep sistem, fungsi, dan siklus hidup aset
Reliability Engineering Fundamentals

Definisi reliability dan failure
Failure mode dan failure mechanism
MTBF, MTTR, failure rate

Metode analisis reliability

Reliability Block Diagram (RBD)
Dasar Fault Tree Analysis (FTA)

Diskusi dan studi kasus sederhana

Availability & Maintainability

Konsep Availability

Inherent, Achieved, dan Operational Availability
Hubungan reliability, maintainability, dan availability

Perhitungan dan analisis availability sistem
Maintainability Engineering

Prinsip desain untuk kemudahan pemeliharaan
Preventive vs Corrective Maintenance
Pengaruh maintainability terhadap downtime dan biaya

Integrasi RAM (Reliability, Availability, Maintainability)
Workshop perhitungan dan analisis studi kasus

Safety & Implementasi in RAMS

Konsep Safety Engineering dalam RAMS

Hazard identification dan risk assessment
HAZID, HAZOP (pengantar)

Risk matrix dan ALARP principle
Integrasi Safety dengan Reliability dan Availability
RAMS dalam desain, operasi, dan pemeliharaan sistem
Penerapan RAMS dalam industri (best practice & lessons learned)
Studi kasus terintegrasi dan diskusi kelompok
Evaluasi, rangkuman, dan penutupan training

About The Course Leader
Ir. Deddy Nugraha, CMRP & Team
Public Training Berikutnya: 19 – 21 Oktober 2026, Bandung

P&ID dan Logic Diagram
2026-06-22 08:30 - 2026-06-24 16:00 | Bandung, Jawa Barat, Indonesia
BACKGROUND & OBJECTIVES:
Process and Instrumentation Diagrams (P&ID) and logic diagrams are essential tools in the design, operation, and maintenance of power plants. These diagrams visually represent process flows, control loops, and the interaction of various components, enabling engineers and operators to understand the operational sequences and troubleshoot issues effectively.
Logic diagram menyajikan detail yang secara skematis memperlihatkan semua instrument peralatan yang akan mempengaruhi berlangsungnya pengaturan yang bersifat sekuensial yaitu peralatan-peralatan yang berpengaruh dalam berlangsungnya pengaturan seperti Switch, Timer, dan memor yang mempunyai keluaran sebagai pengenali/menjalankan Pompa, Katup, Compresor dan sebagainya.
Schematic diagram dibuat untuk memperlihatkan semua peralatan listrik yang digunakan meliputi shematic control diagram seperti phenumatic dan hydraulic dan electrical schematic diagram yang memperlihatkan semua peralatan listrik yng digunakan, hal ini akan membantu untuk dapat mengerti operasional sistem peralatan maupun proses tersebut dengan cepat, sehingga memudahkan dalam hal mencari gangguan dan pemeriksaan. Schematic diagram ini ada yang diperuntukan pada schematic control diagram, yang menerangkan dan menjelaskan fungsi-fungsi dari bermacam-macam komponen control. Oleh karenanya uraian yang akan disajikan dalam training ini menitikberatkan pada pemahaman terhadap rangkaian operasi suatu peralatan melalui rangkaian Logic dan Sekuensialnya berupa contoh-contoh kecil untuk memahami schematic dan logic diagram yang lebih kompleks yang ada di tiap-tiap Pembangkit
COURSE OBJECTIVES:
Setelah mengikuti training P&ID Logic Diagram ini peserta diharapkan:

Understand P&ID and logic gate fundamentals
Develop skills in process control and instrumentation symbology
Interpret and analyze power plant P&ID diagrams
Gain insights into logical sensors, actuators, and circuits
Map control circuits and ladder diagrams for system troubleshooting

WHO SHOUD ATTEND:

Engineers – Power Plant and Process Engineers involved in design, operation, and maintenance
Supervisors – Plant supervisors responsible for operational oversight and compliance
Technicians – Maintenance and Instrumentation Technicians working with process control systems
Operators – Power plant operators managing daily operations and system monitoring
Project Team Members – Personnel involved in system upgrades or development projects
HSE Professionals – Health, Safety, and Environment staff ensuring safe operational practices

COURSE CONTENTS:

Introduction to Process Diagrams and P&ID

Overview of P&ID and its role in power plant operations
Importance of accurate process diagrams for troubleshooting and system analysis
Key differences between block diagrams, schematics, and P&ID

Process Control and Instrumentation Fundamentals

Fundamental concepts of process control loops (open/closed loops)
Role of instrumentation in power plant efficiency and safety
Introduction to control devices (valves, sensors, and transmitters)

Instrumentation Symbology in P&ID

Standard symbols used for instrumentation and control devices
ISA (Instrumentation Society of America) and IEC standards
Practical exercises in reading and creating P&ID

P&ID for Power Plants

Specific applications of P&ID in power generation systems
Boiler, turbine, and auxiliary system diagrams
Analyzing and interpreting complex power plant diagrams

Automatic Control Systems and Responses

Overview of Distributed Control Systems (DCS) and SCADA
System response to process changes (alarms, interlocks, and safety systems)
Real-time monitoring and feedback loops

Understanding Logic Sequences and Control

Basic logic gate operations (AND, OR, NOT, XOR)
Application of logic sequences in automated plant operations

Logical Sensors and Actuators

Types of sensors (temperature, pressure, flow) and their functions
Actuator types and their role in executing control logic
Integration of sensors and actuators in system control

Logical Circuits and Components

Designing and interpreting logical circuits
Key components: relays, switches, and solenoids
Troubleshooting faults in logical circuit designs

Mapping Control Circuits and Ladder Diagrams

Ladder diagram structure and design principles
Mapping control logic into practical circuit designs
Hands-on practice in developing ladder diagrams

Power Plant Sequence Control Systems

Overview of sequence control in power plant operations
Examples of start-up, shutdown, and emergency sequences
Techniques for optimizing and updating sequence control

ABOUT THE TRAINER:
Ir. Ali Mashar, M.Eng.Sc atauToto Tohir, ST., MT
Ir. Ali Mashar, M.Eng.Sc, is graduated from New South Wales University (UNSW) Sydney Australia. His core expertise is power and control or electric engineering.
He used to be Head of Study program of energy conversion engineering Poltek ITB (POLBAN) and being lecturer there. And also He has been head of laboratory of energy engineering PEDC and becoming lecturer. He has taught some topics in training class for participants from various companies in Indonesia.
Public Training Berikutnya: Bandung, 15-17 September, 2026
Bandung, 14-16 Desember, 2026

Oil Water Treatment Technology
2026-06-22 08:30 - 2026-06-24 16:00 | Bandung, Jawa Barat, Indonesia
About the Course:
Teknologi pengolahan air minyak memainkan peran penting tidak hanya dalam industri minyak dan gas, tetapi juga di sebagian besar perusahaan besar yang peduli terhadap lingkungan. Pemisahan minyak dan air yang efisien sangat penting untuk kepatuhan lingkungan dan efisiensi operasional. Pelatihan Oil Water Treatment Technology membahas prinsip-prinsip, proses, dan teknik-teknik canggih untuk mengolah air yang terkontaminasi minyak, dengan fokus pada dasar-dasar teoritis dan aplikasi praktis.
Dalam kursus ini, peserta akan mempelajari berbagai metode pengolahan air minyak, termasuk teknologi terbaru yang dapat meningkatkan efektivitas pemisahan dan pengolahan. Dengan pemahaman yang mendalam tentang proses ini, peserta diharapkan dapat menerapkan teknik yang tepat untuk memenuhi standar lingkungan dan meningkatkan efisiensi operasional di tempat kerja mereka.
Objectives:
Setelah mengikuti pelatihan ini, peserta diharapkan mampu:

Memahami prinsip dasar pengolahan air minyak dan pentingnya dalam industri.
Mengidentifikasi berbagai teknik pemisahan minyak dan air yang efisien.
Menerapkan metode pengolahan yang sesuai untuk air terkontaminasi minyak.
Menganalisis dan mengevaluasi efektivitas proses pengolahan yang diterapkan.
Mengembangkan strategi untuk meningkatkan kepatuhan lingkungan dan efisiensi operasional.

Recommended Participants:
Pelatihan ini direkomendasikan untuk:

Insinyur lingkungan.
Staf operasional di industri minyak dan gas.
Manajer proyek yang terlibat dalam pengolahan air.
Profesional yang bekerja di bidang pengelolaan limbah dan perlindungan lingkungan.

Course Outline:
1.Introduction to Oil-Water Treatment Technology

Pentingnya pengolahan air minyak dalam industri.
Dampak lingkungan dari air terkontaminasi minyak.

2.Principles of Oil-Water Separation

Teori dasar pemisahan minyak dan air.
Faktor-faktor yang mempengaruhi efisiensi pemisahan.

3.Advanced Treatment Techniques

Teknologi terbaru dalam pengolahan air minyak.
Metode fisik, kimia, dan biologis untuk pengolahan.

4.Practical Applications and Case Studies

Studi kasus penerapan teknologi pengolahan air minyak.
Evaluasi efektivitas teknik yang digunakan.

5.Regulatory Compliance and Environmental Impact

Standar lingkungan yang relevan.
Strategi untuk mencapai kepatuhan dan mengurangi dampak lingkungan.

About the Trainer:
Ir. In Jumanda, MT. adalah seorang profesional berpengalaman di bidang teknik dan manajemen proyek, khususnya dalam industri minyak dan gas. Dengan latar belakang pendidikan yang kuat dan pengalaman praktis yang luas, Jumanda telah berkontribusi dalam berbagai proyek besar yang melibatkan teknologi pengolahan air dan pemisahan minyak.
Sebagai trainer, Jumanda memiliki kemampuan untuk menyampaikan materi dengan jelas dan efektif, serta membagikan pengetahuan praktis yang relevan kepada peserta pelatihan. Beliau dikenal karena pendekatan interaktif dalam pengajaran, yang mendorong diskusi dan partisipasi aktif dari peserta.
Jumanda juga memiliki sertifikasi profesional yang diakui di bidangnya, dan telah memberikan pelatihan di berbagai perusahaan terkemuka, membantu mereka dalam meningkatkan efisiensi operasional dan kepatuhan lingkungan melalui teknologi pengolahan air yang inovatif.
Public Training berikutnya : 14 – 16 Oktober, 2026

Drilling Problem Analysis
2026-06-22 08:30 - 2026-06-24 16:00 | Bandung, Jawa Barat, Indonesia
About the Course:
Pengeboran sumur minyak dan gas sering kali menghadapi tantangan yang tidak terduga, meskipun telah dilakukan perencanaan yang matang. Drilling Problem Analysis adalah kunci keberhasilan operasi pengeboran, yang melibatkan kemampuan untuk mengidentifikasi dan mengantisipasi potensi masalah serta merancang program pengeboran yang efektif. Pelatihan ini dirancang untuk membekali peserta dengan pengetahuan mendalam tentang analisis masalah pengeboran, pemecahan masalah yang sering muncul, dan strategi untuk mengelola risiko selama operasi pemboran.
Course Objectives:

Memahami lingkup pekerjaan dalam operasi pemboran.
Memahami tahap-tahap perencanaan sumur.
Memahami pengertian tekanan formasi dan kaitannya dengan perencanaan pemboran.
Memahami komponen-komponen rig serta fungsinya.
Memahami jenis-jenis material pemboran (lumpur, casing, dan semen) serta fungsinya.
Memahami prinsip pemboran miring (directional drilling).
Memahami problem-problem pemboran dan penangannya.

Who Should Attend:

Drilling Engineer
Ahli pengendali dan juru bor
Operator menara bor
Operator lantai bor
Personil lainnya yang terlibat dalam kegiatan operasi produksi

Course Content:

Pendahuluan dan Perencanaan Sumur:

Konsep dasar perencanaan sumur.
Identifikasi risiko awal dan analisis potensi masalah.

Persiapan Operasi Pemboran:

Peralatan pemboran dan kesiapan operasional.
Penggunaan data geologi untuk antisipasi masalah.

Analisis Tekanan Formasi dan Gradien Rekah:

Faktor penyebab tekanan abnormal.
Dampak tekanan formasi terhadap stabilitas lubang.

Problem Analysis pada Komponen Rig dan Drill String Design:

Analisis permasalahan umum pada rig dan drill string.
Pemilihan alat untuk mitigasi masalah operasional.

Problem Analysis Lumpur Pemboran dan Pengendalian Stabilitas Lubang:

Masalah yang sering terjadi terkait lumpur pemboran.
Solusi untuk lubang yang tidak stabil.

Problem Analysis Casing Setting Depth dan Casing Design:

Kesalahan umum dalam pemasangan casing.
Strategi desain casing untuk pencegahan masalah.

Hole Problems: Identifikasi dan Pemecahan Masalah:

Masalah umum: lost circulation, stuck pipe, wellbore instability.
Strategi analisis akar penyebab dan solusi praktis.

Problem Analysis Semen dan Penyemenan:

Analisis kegagalan penyemenan.
Teknik penyemenan untuk mencegah masalah casing.

Problem Analysis pada Directional Drilling:

Masalah umum dalam pengeboran arah.
Strategi mitigasi untuk masalah jalur sumur.

Well Control dan Manajemen Risiko:

Identifikasi tanda-tanda awal kick dan blowout.
Langkah-langkah pengendalian sumur untuk mencegah eskalasi.

Studi Kasus dan Diskusi Interaktif:

Analisis kasus nyata dari masalah pengeboran.
Simulasi pemecahan masalah menggunakan pendekatan sistematis.

About the Trainer:
Prof. Dr.-Ing. Bonar Tua Halomoan Marbun
Public Training berikutnya : 12 – 14 Oktober, 2026

Operasi dan Perawatan PLTU
2026-06-23 08:30 - 2026-06-26 16:00 | Bandung, Jawa Barat, Indonesia
Background
Manajemen operasi dan pembangkitan merupakan upaya memahami serta mengelola proses operasi sistem pembangkit tenaga listrik dan sistem penyaluran secara rasional, ekonomis, dan berkelanjutan, dengan tetap memperhatikan mutu, efisiensi, dan keandalan operasi. Pada Pembangkit Listrik Tenaga Uap (PLTU), keberhasilan operasi sangat dipengaruhi oleh efektivitas perawatan. Perawatan pembangkitan yang terencana dan dilaksanakan secara efektif akan meningkatkan kinerja unit, memperpanjang umur aset, menekan biaya operasi, serta menjadikan perusahaan unggul dan kompetitif di bidang pembangkitan.
Training ini dirancang untuk mempersiapkan dan meningkatkan kompetensi Sumber Daya Manusia dalam pengelolaan operasi sistem pembangkit, sekaligus memperluas pemahaman terhadap aspek-aspek engineering pada sistem pembangkitan tenaga listrik.Melalui program ini, diharapkan pengelolaan PLTU dapat dilakukan secara handal, efisien, aman, dan ramah lingkungan, sehingga mampu menjamin kontinuitas pasokan energi listrik.
Objectives
Setelah mengikuti pelatihan Operasi dan Perawatan PLTU, peserta diharapkan mampu:

Merencanakan dan mengoperasikan unit pembangkit secara optimal.

Merencanakan dan mengevaluasi keandalan operasi serta faktor-faktor operasi lainnya.

Memberikan rekomendasi perbaikan untuk mengoptimalkan Equivalent Availability Factor (EAF).

Melaksanakan first line maintenance secara benar dan aman.

Melakukan optimasi serta evaluasi kinerja operasi pembangkit.

Merencanakan dan mengelola bahan bakar serta mengevaluasi ketersediaannya sesuai kebutuhan operasi.

Merencanakan dan mengevaluasi transaksi jual beli tenaga listrik berdasarkan parameter dalam Perjanjian Jual Beli Tenaga Listrik (PJBL/PPA).

Recommended Participants
Training ini direkomendasikan untuk:

Supervisor Operasi dan Pemeliharaan

Technician Pembangkit

Engineer (Operation, Maintenance, Engineering)

Operator Pembangkit Listrik

yang bekerja di bidang ketenagalistrikan dan industri pembangkitan, khususnya yang menangani masalah operasi, engineering, instalasi, dan pemeliharaan PLTU.

Course Outline
A. Dasar-Dasar Manajemen Operasi

Konsep dasar manajemen operasi pembangkit

Peran operasi dalam keandalan dan efisiensi PLTU

B. Ruang Lingkup Program Operasi Sistem Pembangkit

Sistem utama dan pendukung PLTU

Keterkaitan operasi, pemeliharaan, dan keselamatan

C. Perencanaan Pemeliharaan

Aspek-aspek pemeliharaan terpadu

Pemeliharaan periodik dan berbasis kondisi

Strategi perawatan untuk peningkatan keandalan

D. Prosedur Pemeliharaan Pembangkit

First line maintenance

Koordinasi operasi dan pemeliharaan

Dokumentasi dan pelaporan teknis

E. Perencanaan Operasi

Perencanaan beban dan kesiapan unit

Pengelolaan bahan bakar dan operasi ekonomis

F. Manajemen Efisiensi PLTU

Faktor-faktor yang mempengaruhi efisiensi

Upaya peningkatan efisiensi operasi

G. Indeks Kinerja Pembangkit

Definisi indeks kinerja pembangkit

Durasi outage dan derating

Formula dan perhitungan indeks kinerja (EAF, EFOR, dll.)

H. Studi Kasus dan Diskusi

Studi kasus operasi dan perawatan PLTU

Diskusi permasalahan nyata di lapangan

About The Course Leader
Cecep Slamet Abadi, ST., MT is an associate instructor at FJM with a background in Mechanical Engineering for both undergraduate and graduate studies. He has been an active lecturer since 1996 and has experience in industry and consulting, including roles at LAPI ITB, Puslitbang Air, PINDAD, and conducting energy audits at Pertamina EP Pangkalan Susu, Tambung, and Rengasdengklok. He is also part of the competency testing team for IATKI (Indonesian Electrical Engineering Association).
In terms of industrial training, Mr. Cecep has conducted over 150 in-house and public training sessions for organizations such as Indonesia Power, PLTA Saguling, Freeport-Papua, Chevron Oil/Gas, Chevron Geothermal, Premier Oil, Pupuk Sriwijaya, Pupuk Kujang, Badak LNG, and many others.
Public Training Berikutnya: 11 – 13 November 2026, Bandung

Operasi dan Perawatan Pembangkit Listrik Tenaga Uap (PLTU) | operasi perawatan pembangkit listrik tenaga uap PLTU | operasi-perawatan-pembangkit-listrik-tenaga-uap-pltu Kuasai pengoperasian dan perawatan PLTU untuk mendukung kinerja pembangkit listrik. | Master operation and maintenance techniques of coal-fired power plants (PLTU) to support optimal performance. | Rahmat Subarkah* S.T.* M.T | Power Generation

Pengujian & Kalibrasi Proteksi Peralatan Electrical Pembangkit
2026-06-23 08:30 - 2026-06-26 16:00 | Bandung, Jawa Barat, Indonesia
BACKGROUND:
Pengujian & Kalibrasi Proteksi Peralatan Elektrikal Pembangkit
Keandalan sistem tenaga listrik sangat bergantung pada efektivitas sistem proteksi yang diterapkan. Dalam merancang sistem tenaga listrik, analisa gangguan dan kondisi abnormal yang mungkin terjadi harus menjadi perhatian utama. Beberapa peralatan utama yang diproteksi meliputi Generator, Main Transformer, Station Service Transformer, dan House Transformer. Kondisi abnormal seperti hubungan singkat, tegangan lebih, beban lebih, dan frekuensi rendah dapat mengganggu operasi dan mengancam keamanan sistem.
Pengujian dan kalibrasi peralatan proteksi pembangkit berperan krusial untuk memastikan bahwa sistem perlindungan ini berfungsi dengan optimal. Pelatihan ini bertujuan untuk membekali peserta dengan keterampilan dan pengetahuan mengenai metode pengujian dan kalibrasi peralatan elektrikal pada pembangkit listrik. Peserta akan mempelajari prosedur yang diperlukan untuk menjaga keandalan dan keamanan sistem tenaga, dengan fokus pada identifikasi dan penanganan kondisi abnormal.
TRAINING OBJECTIVES:

Understand the principles and importance of protection systems in power generation electrical equipment.
Identify key components and functions of electrical protection systems in power plants.
Perform accurate testing and calibration of electrical protection devices to ensure system reliability.
Interpret test results and diagnose potential faults or inefficiencies in protection systems.
Apply best practices in maintaining and calibrating protection relays and associated equipment.
Ensure compliance with industry standards and regulations for electrical protection systems.
Develop troubleshooting skills for resolving issues related to protection system malfunctions.

COURSE OUTLINE:
1. Pengantar Electrical Power Generation System
2. Coordination of Protection System:

Primary and back-up protection
Need for coordination of setting
Relay/fuse coordination
Relay/recloser coordination
Fuse/ recloser coordination

3. Pengukuran dan Kalibrasi:

Instrumen ukur yang perlu dikalibrasi
Ketidakpastian pengukuran

4. Cara dan waktu pengukuran alat proteksi
5. Langkah-langkah pengujian dan kalibrasi:

Relay proteksi diferensial
Relay proteksi field failure
Relay proteksi over voltage
Relay proteksi under voltage
Relay proteksi impedance
Relay proteksi overcurrent excitation
Relay proteksi earth fault voltage
Relay proteksi rotor earth fault high resistance
Relay proteksi rotor earth fault low resistance
Relay proteksi frequency

6. Studi kasus dan diskusi
WHO SHOULD ATTEND:

Supervisor/ Teknisi Instrumen dan Kontrol
Staff, Engineer Instrumen dan Kontrol

TRAINER:
Ir. Ali Mashar, M.Eng.Sc,. IPU
Pengujian & Kalibrasi Proteksi Peralatan Elektrikal Pembangkit
| Training Berikutnya: 26 – 28 Oktober 2026, Bandung
Pengujian and Kalibrasi Proteksi Peralatan Electrical Pembangkit | pengujian kalibrasi proteksi peralatan electrical pembangkit | pengujian-kalibrasi-proteksi-peralatan-electrical-pembangkit Kuasai teknik pengujian dan kalibrasi proteksi peralatan listrik pada pembangkit. | Master testing and calibration techniques for electrical protection equipment in power plants. | Supriyanto* S.T.* M.T | Power Generation

Distributed Control System Operation and Maintenance
2026-06-24 08:30 - 2026-06-26 16:00 | Bandung, Jawa Barat, Indonesia
BACKGROUND & ABOUT THE COURSE:
DCS (Distributed Control System) adalah suatu pengembangan sistem kontrol dengan menggunakan komputer dan alat elektronik lainnya agar didapat suatu pengontrol suatu loop system lebih terpadu dan dapat dilakukan operator yang terlatih, dengan cepat dan mudah. DCS dapat digunakan untuk mengontrol proses/peralatan suatu plant dalam skala menengah sampai besar.
Untuk mempermudah penggunaan, DCS sudah menyertakan tampilan grafik (gambar analogi peralatan) dan software untuk konfigurasi control. DCS dapat dipakai untuk lebih dari 1 workstation dan dapat dikonfigurasi di workstation atau PC. Komunikasi dapat melalui jaringan kabel atau optic.
Mengingat kompleksitasnya, maka diperlukan penguasaan yang baik untuk dapat menjalankannya. Training ini dirancang untuk memberikan pengetahuan yang cukup dari deberikan oleh seorang Doktor dan praktisi yang berkompeten.
TRAINING OBJECTIVES:
At the end of this course, participants will be able to:

A solid understanding of the architecture and operation of Distributed Control Systems (DCS)
Ability to design the overall DCS and process control system
Better specification of planned DCS
Able to perform simple trouble shoot on the DCS they are working on

WHO SHOULD ATTEND:

Process Control Engineers & Technicians
Automation Engineers
Operators & Control Room Personnel’s
Electrical & Instrumentation Technicians

COURSE CONTENT:

DCS Introduction
Summary of typical distributed control systems DCS versus SCADA versus PLC
DCS System Elements
Data Communications in a DCS
The Basic Controller
Basic DCS Controller Configuration
Programming Of DCS Systems
Alarm System Management
Distributed Control System Reporting
Distributed Control System Configuration
Advanced Control Strategies Maintenance Considerations
DCS Maintenance

ABOUT THE COURSE LEADER:
Prof. Endra Joelianto, Ir., Ph.D., SMIEEE: Control Engineering Expert
Prof. Endra Joelianto, Ir., Ph.D., SMIEEE, is a leading expert in control engineering with research focusing on Hybrid Control Systems, Discrete Event Control Systems, Petri Nets, Robust PID Controllers, and Industrial Automation using PLC/DCS. He earned his Engineering Physics degree from ITB in 1990 and a PhD in Control Engineering from The Australian National University in 2001. Prof. Endra coordinates Intelligent Control and Automation at ITB and founded the PLC Research Group and Schneider-OMRON PLC Training Center, fostering collaboration with Schneider Electric, OMRON Corporation, and Invensys WONDERWARE.
He has led national retooling projects and participated in professional training on PLC, DCS, and calibration across Asia and Africa. As an instructor, he provides training in instrumentation and process control to universities and major companies in the petrochemical, oil and gas, and manufacturing sectors, including PERTAMINA, British Petroleum, and PT. Pupuk Kalimantan Timur. His contributions have significantly advanced industrial automation and education in Indonesia.
Training Berikutnya: 23 – 25 November 2026, Bandung

Project Control and Scheduling Using MS Project
2026-06-24 08:30 - 2026-06-26 16:00 | Bandung, Jawa Barat, Indonesia
Background & About the Course:
Effective project control and scheduling are essential to the success of any project, ensuring that tasks are completed on time, within budget, and to the required quality standards. Microsoft Project (MS Project) is a powerful tool that provides professionals with the ability to plan, execute, and monitor projects with precision. By mastering MS Project, project managers and team members can streamline workflows, optimize resources, and make data-driven decisions to manage risks and changes effectively.
This course is designed to equip participants with both theoretical knowledge and practical skills in project control and scheduling. It covers essential concepts such as task dependencies, resource allocation, critical path analysis, and progress tracking. Through interactive hands-on sessions, participants will learn to utilize MS Project to develop, update, and analyze project schedules, ensuring alignment with project objectives and stakeholder expectations.
Course Objectives:

Understand the fundamentals of project control and scheduling concepts.
Create and manage detailed project schedules using MS Project.
Define task relationships, dependencies, and constraints.
Allocate and manage project resources efficiently.
Perform critical path analysis and identify project risks.
Track project progress and make adjustments to ensure alignment with project goals.
Generate reports and communicate project status effectively

Who Should Attend:

Project managers and team leaders.
Project planners and schedulers.
Engineers involved in project execution and planning.
Professionals managing project timelines and resources.
Individuals looking to enhance their MS Project skills for better project management.

Course Content:
Introduction to Project Scheduling and MS Project Basics

Overview of project control and scheduling.
Introduction to MS Project: Interface and key features.
Creating a new project: Defining scope and objectives.
Setting up project calendars, tasks, and milestones.
Understanding task dependencies and relationships.

Advanced Scheduling and Resource Management

Task constraints and priorities: Balancing flexibility and control.
Resource allocation and leveling: Avoiding overallocation.
Critical path analysis: Identifying key tasks and timelines.
Managing project baselines and tracking progress.
Addressing scheduling conflicts and making adjustments.

Monitoring, Reporting, and Hands-On Practice

Tracking project performance: Progress updates and variance analysis.
Creating visual reports and dashboards.
Scenario planning and managing project changes.
Hands-on case study: Developing and managing a project schedule.
Q&A and discussion on real-world applications of MS Project.

About the Trainer:
Dr. Djadja Achmad Sardjana S.T., M.M.
Dr. Djadja Achmad Sardjana S.T., M.M Senior Executive on Strategic Planning/ Business Expansion/ Project/ Process/ Quality/ Knowledge Management/ Human Capital Learning, Corporate University and Operation Management At AT&T/Lucent, Ariawest/AT&T Wireless, M-Web, Motorola and Sampoerna Telekom
Management strategist with a 20+ year record of achievement and demonstrated business success in highly competitive markets. Have strength on driving growth of company revenues and improving business performance. Exceptional executive, mentor and coach with capability to building company learning organization and knowledge management, new business process, securing customer loyalty, and forging strong relationships with external business partners.
Training Berikutnya: 21 – 23 Oktober 2026, Bandung

PSC Business & Profit Sharing Funds
2026-06-24 08:30 - 2026-06-27 16:00 | Jakarta
Background:
Production Sharing Contract (PSC) is the most widely used contractual framework in the oil and gas industry to regulate the relationship between host governments and contractors. Under this scheme, in the upstream oil & gas business Government retains ownership of natural resources, while contractors are entitled to recover costs and share profits according to agreed terms.
Understanding PSC business mechanisms—particularly cost recovery, profit sharing, and fund allocation—is critical for professionals involved in planning, operations, and decision-making. Misinterpretation of PSC clauses may lead to inefficiencies, financial disputes, and suboptimal project economics. This training provides a practical and structured understanding of PSC business fundamentals, with emphasis on profit sharing funds and their commercial implications.
Objectives:
• Understand PSC principles and contractual structure
• Explain cost recovery and profit sharing mechanisms
• Interpret PSC fiscal terms and fund allocation
• Analyze business implications of PSC clauses
• Support operational and commercial decision-making under PSC framework
Recommended Participants:

• Non-finance & non-commercial professionals
• Engineers, Supervisors, Project Managers
• Business Development, Operation, and Asset Team
• Government / Regulator liaison officers

Course Outline:
PSC Fundamentals & Business Framework
1. Introduction to Production Sharing Contract (PSC)
• History and evolution of PSC
• Comparison with concession & service contracts
• Roles of government, contractor, and regulator
2. PSC Legal & Commercial Structure
• Key PSC clauses and terminology
• Contractual rights and obligations
• Duration, work commitment, and relinquishment
3. PSC Business Flow Overview
• Revenue generation in upstream activities
• Cost elements in exploration and production
• Relationship between operations and PSC economics
4. Gross Revenue & Cost Recovery Concept
• Definition of gross revenue
• Eligible vs non-eligible costs
• Cost recovery ceiling and limitations
Profit Sharing & Fiscal Mechanism
1. Cost Recovery Mechanism in Detail
• Capital and operating expenditures (CAPEX & OPEX)
• Depreciation and amortization principles
• Audit and approval process
2. Profit Oil / Gas Sharing Mechanism
• Profit oil vs profit gas
• Government and contractor split
• Sliding scale and variable sharing
3. First Tranche Petroleum (FTP)
• Purpose and calculation
• Government and contractor FTP share
• Impact on contractor cash flow
4. Taxes, Bonuses, and Fiscal Obligations
• Income tax treatment under PSC
• Signature, discovery, and production bonuses
• Domestic Market Obligation (DMO) concept
Profit Sharing Funds & Business Implications
1. Profit Sharing Funds Allocation
• Government take vs contractor take
• Central and regional government allocation
• Special funds and earmarked revenues
2. PSC Economics & Business Decision Impact
• PSC impact on project feasibility
• Sensitivity to oil & gas price fluctuation
• Cost efficiency and profitability drivers
3. PSC Business Risk & Common Issues
• Cost overrun and recovery disputes
• Regulatory and fiscal changes
• Commercial risk from PSC interpretation
4. Case Illustration & Practical Insights
• Simplified PSC cash flow illustration
• Profit sharing calculation example
• Lessons learned from PSC implementation
Training Method
• Interactive lecture
• Conceptual explanation with examples
• Practical discussion based on real PSC structure
Expected Outcomes
• Clear understanding of PSC business logic
• Ability to read and interpret PSC profit-sharing clauses
• Improved collaboration between technical and commercial teams

About The Course Leader:
Benny Lubiantara

|Training Berikutnya: Bandung, 12-14 Oktober, 2026
PSC Business and Profit Sharing Funds | PSC business profit sharing funds | psc-business-profit-sharing-funds Pelajari skema Profit Sharing Contract (PSC) untuk mendukung manajemen pendapatan di industri minyak dan gas. | Learn about Profit Sharing Contract (PSC) schemes to support revenue management in the oil and gas industry. | Dr. A. Rinto Pudyantoro* MM* Ak* CA | Oil & Gas* Management* Finance

PSC Planning and Control (POD, WP&B, and AFE)
2026-06-25 08:30 - 2026-06-28 16:00 | Jakarta
Background & About the Course
PSC Planning and Control (POD, WP&B, and AFE) are the main issue in oil & gas operation in Indonesia, aiming for the what so called Cost Recovery. The primary activity in the upstream oil and gas business is to search for and prove the existence of hydrocarbons. Once reserves are successfully identified, investment and development decisions will be made based on the economic calculations of the field. At this stage, PSC (Production Sharing Contract) Planning begins and becomes essential. The training will start with a discussion on project economics within the framework of PSC Cost Recovery and PSC Gross Split. This will be followed by discussions related to the Plan of Development (POD), covering concepts, regulations, procedures, and documentation preparation.
Once the planning process is aligned, the discussion will continue with the preparation of Work Program and Budget (WP&B) and Authorization for Expenditure (AFE) for annual work. The discussions on WP&B and AFE will not only cover procedures but will also delve into the underlying concepts and principles behind the regulations and preparation processes.
Course Objectives
After completing this training, participants will gain a comprehensive understanding of the subject matter, equipping them with valuable knowledge that will be beneficial in their daily work.
Who Should Attend
This training is highly suitable for:

Employees in the Oil & Gas sector
Field technical workers
Exploration, drilling, production, and maintenance teams, including support teams such as:
Warehouse staff
Supply chain teams
Planning managers, both commercial and project development team members
Support teams from finance, human resources, public relations, legal, administration, and other operational teams

Course Content

Upstream Business: National & Global Issues
The Operation of PSC Cost Recovery & PSC Gross Split from a Business Planning Perspective
Cost and Cost Recovery Treatment: Misunderstandings of Cost Recovery Principles
Cost and Taxation under PSC Gross Split
Development: Reserves, Resources, and Production Forecasts; Estimating Project Revenues Over Time; Estimating Costs and Cash Outlays Over Time; Analyzing Net Cash Flows; External Factors Affecting Project Analysis
Discussion on Decision Criteria and Cash Flow Analysis: NPV, IRR, Payback Period, Profitability, Discount Rates, Break-even Analysis
Corporate Views of Risk: Marketing, Negotiations, and Concessions; Presentation of Project Analysis Results; Implementation in Indonesia; Legal and Contractual Aspects
Plan of Development (POD)
Work Program & Budget (WP&B) & Authorization for Expenditure (AFE).
WP&B and AFE Based on PSC Cost Recovery and PSC Gross Split

About the Course Leaders
Benny Lubiantara/ Dr. A Rinto Pudyantoro, MM, Ak, CA
|Training Berikutnya: Bandung: 20 – 21 Oktober, 2026

Introduction to FEED (Front End Engineering Design)
2026-06-29 08:30 - 2026-07-01 16:00 | Bandung, Jawa Barat, Indonesia
BACKGROUND:
Front End Engineering Design (FEED) is a crucial phase in the development of large-scale engineering projects, particularly in industries like oil and gas, petrochemicals, power, and infrastructure. This phase occurs after the conceptual design and before the detailed engineering phase. FEED focuses on defining the project’s technical requirements and laying the groundwork for a successful execution by ensuring all necessary aspects are well-understood and documented.
FEED helps establish a well-defined scope, budget, schedule, and identifies risks, resulting in greater success during implementation, start-up, and beyond. By undertaking FEED at the beginning of your project, you can minimize your overall project risks.
Through a FEED, you can realize:

Lower lifecycle costs
Reduced project technical, schedule and cost risks
Faster time to achieve plant startup and turnover
Reduced EHS and compliance risks
Improved risk identification and mitigation

OBJECTIVES:

Understand the purpose and importance of the Front End Engineering Design (FEED) phase in project development.
Recognize the key differences between FEED, conceptual design, and detailed engineering.
Identify the major components and deliverables of the FEED phase, such as process flow diagrams (PFDs), equipment layouts, and preliminary cost estimates.
Grasp the basic steps involved in defining project scope and objectives during FEED.
Appreciate the role of FEED in minimizing risks, controlling costs, and ensuring project alignment with business goals.
Gain insights into how FEED influences subsequent project phases, including procurement and construction.
Learn best practices and basic strategies for applying FEED principles in real-world scenarios.

Recommended Participants

Project managers and engineers in oil & gas, petrochemical, and power industries.
Professionals involved in planning, design, and project execution.
Procurement & Logistic who involved in Procurement Project Management (PPM)
New team members seeking foundational knowledge of FEED.

Course Outline
Introduction and Overview
Understanding FEED

Definition and purpose of FEED.
Role of FEED in the project lifecycle.
Key differences between FEED, conceptual design, and detailed engineering.

Key Elements of FEED

Overview of project scope and objectives.
Importance of aligning FEED with business and project goals.
Key deliverables of a FEED phase.

Simplified FEED Processes
Basics of Project Scope Definition

How to define project requirements.
Essential inputs for a successful FEED phase.

Introduction to FEED Deliverables

Overview of typical FEED outputs:

Process flow diagrams (PFDs).
Equipment lists and layouts.
Preliminary cost estimates.

Activity: Exercise on reviewing sample FEED deliverables.
FEED Best Practices and Practical Applications
Simplified Risk and Cost Overview

Basics of identifying risks in FEED.
Importance of preliminary cost estimation.

Transition from FEED to Execution

How FEED influences the detailed engineering phase.
Brief introduction to integrating FEED with procurement and construction.

Case Studies and Summary

Real-world examples of successful FEED implementation.
Key lessons learned from common FEED challenges.

Activity: Wrap-up discussion on how to apply FEED concepts in small-scale projects.

About The Course Leader
Ir. Deddy Nugraha, is a Senior Rotating Engineer and Asset Reliability specialist. Graduated from Mechanical Engineering Department, ITB (1990), and had advanced training in France and USA, for Gas turbine maintenance and repair. He brings extensive expertise in RCA and troubleshooting for Turbomachinery Equipment, as well as in Reliability philosophy, and serves as a SERIP instructor at Chevron-Riau. Additionally, he holds the position of General Secretary for both the Indonesian Reliability Society (ISR) and KMI.
Many consulting works has been conducted including in PT. Indonesia Power (Tambak Lorok, Suralaya, Perak), PT.IPMOMI Paiton, and, PT. PGN SBU TSJ and PT. Pertamina Gas, PT. HKS Humpus, and PT. Vale Indonesia. Operational excellence at PGN and railway safety management at the Minister of Transportation. Reliability Data collection in Geothermal Power plant Kamojang.

| Training Berikutnya: 24 – 26 Agustus 2026, Bandung

Centrifugal Pump Operation and Maintenance
2026-07-01 08:30 - 2026-07-03 16:00 | Bandung, Jawa Barat, Indonesia
About the Course:
Pelatihan ini berfokus pada prinsip Centrifugal Pump Operation and Maintenance, hidrolik pompa sentrifugal serta interaksi antara pompa dan pipa. Materi yang dibahas mencakup tinjauan mekanika fluida, persamaan Bernoulli yang dimodifikasi yang diterapkan pada sistem perpipaan, persamaan energi yang diterapkan pada pompa dan sistem perpipaan, serta kehilangan energi dalam pipa dan fitting. Diskusi kelas juga mencakup proses pemilihan pompa centrifugal, pengukuran kinerja pompa, hubungan kecepatan spesifik-efisiensi, hukum afinitas, pengaruh diameter pipa terhadap ukuran pompa yang dibutuhkan, dan net positive suction head (NPSH).
Objectives:
Setelah menyelesaikan pelatihan ini, peserta diharapkan mampu:

Memahami prinsip operasi dan komponen kunci dari pompa sentrifugal.
Mengidentifikasi jenis-jenis pompa sentrifugal yang umum dan aplikasinya di berbagai industri.
Mendiagnosis masalah operasional dan mengenali tanda-tanda awal kegagalan pompa.
Melakukan pemeliharaan preventif dan korektif untuk memastikan kinerja pompa yang optimal.
Menerapkan praktik terbaik dalam penyelarasan pompa, pelumasan, dan sistem penyegelan.
Menganalisis kebutuhan sistem untuk memilih pompa yang sesuai untuk aplikasi tertentu.

Recommended Participants:
Pelatihan ini dirancang untuk individu yang memiliki pengetahuan dasar tentang pompa dan ingin memahami lebih dalam tentang cara kerja pompa sentrifugal, serta kapan dan bagaimana menerapkan pengetahuan ini. Insinyur dan teknisi pemeliharaan yang bertanggung jawab atas operasi dan keandalan pompa:

Insinyur proses yang bekerja dengan sistem yang melibatkan pompa sentrifugal.
Pengawas dan operator yang terlibat dalam pemantauan peralatan pabrik.
Karyawan baru atau profesional dengan gelar teknik yang beralih ke peran yang memerlukan pengetahuan tentang operasi dan pemeliharaan pompa.

Course Outline:

Various Types of Pumps

Centrifugal
Positive displacement
Various pump drivers/prime movers

Pump Basic Construction

Basic design based on ANSI & API-610
Different types/construction of pumping installations
Various configurations of pump operations

Understand the Internal Parts of Pump

Familiarization with common pump parts
Cross-sectional view in 3D of various types of pumps
Function of each pump part

Pump Design & Operations

Different pump applications
Safety precautions
Preparation for startup/stop
Calculating capacity, head, efficiency (basic formula)
Pump curve
Protection and auxiliary systems
Working with different types of fluids (water, oil, condensate, glycol, etc.)
Typical operational problems of various pump types

Understand First Level Maintenance of Pump

Description/explanation of pump maintenance levels: do’s and don’ts
First maintenance level for various types of pumps

Troubleshooting
Case Study on Maintenance, Failure, and Troubleshooting

Discuss various case studies of operational & maintenance problems (trainees are encouraged to share their experiences).

About the Course Leaders:
Cecep Slamet Abadi, ST., MT adalah associate instructor di FJM dengan latar belakang pendidikan Teknik Mesin untuk jenjang S1 & S2. Selain aktif sebagai dosen sejak tahun 1996, beliau juga memiliki pengalaman di bidang industri dan konsultan, termasuk di LAPI ITB, Puslitbang Air, PINDAD, Audit Energi di Pertamina EP Pangkalan Susu, Tambung & Rengasdengklok, serta sebagai tim uji kompetensi di IATKI (Ikatan Akhli Ketenagalistrikan Indonesia). Untuk pelatihan industri, Pak Cecep telah mengajar lebih dari 150 in-house maupun public training di berbagai perusahaan, termasuk Indonesia Power, PLTA Saguling, Freeport-Papua, Chevron Oil/Gas, Chevron Geothermal, Premier Oil, Pupuk Sriwijaya, Pupuk Kujang, Badak LNG, dan lainnya.
| Training Berukutnya: 02 – 04 November 2026, Bandung

Boiler & System Operation
2026-07-01 08:30 - 2026-07-03 16:00 | Bandung, Jawa Barat, Indonesia
Background & About the Course:
A boiler is a closed container that heats a fluid, usually water, to create steam or hot water. The heated fluid is then used for a variety of applications, such as heating, cooking, and power generation. Boiler & System Operation has very specific operation system so that it functions how it is supposed to be.
This comprehensive course is meticulously crafted to impart essential knowledge on the maintenance and safe operation of boiler and steam systems. Participants will delve into the intricacies of pressurized vessels, master boiler operation safety skills, and explore effective troubleshooting techniques. Additionally, the course covers preventative maintenance guidelines, equipping participants with the expertise to diagnose and repair equipment malfunctions efficiently. By engaging with actual equipment, participants will gain practical experience, enhancing their ability to apply these skills in real-world scenarios.
Course Objectives:
Participants will achieve the following objectives:

Master the installation, operation, maintenance, and management of boiler plants.
Understand the steam and combustion processes.
Implement safe boiler operation techniques.
Learn about pollutants and technologies to reduce emission levels.
Achieve peak boiler plant efficiencies.
Identify and troubleshoot boiler problems quickly and efficiently.

Who Should Attend:
This course is ideal for:

Senior Boiler Plant Operators, Repairers & Installers
Boiler Plant Engineers
Operation, Maintenance, Inspection & Repair Managers, Supervisors & Engineers
Mechanical Engineers & Technicians
Design Engineers, Insurance Company Inspectors

Course Content:

Introduction
Fuel Combustion and Steam Generation Process
Boiler Auxiliary Plant
Operations and Controls
Pressure Containing Components
Planning and Managing Boiler Maintenance
Managing Boiler Repairs, Troubleshooting & Modifications
Cold Storage of a Boiler
Emission Controls and Environmental Constraints

About the Trainer:
Maridjo, Drs, ST., MT., is a distinguished alumnus of the Mechanical Engineering Department at Institut Teknologi Bandung (ITB). Currently a lecturer at Polytechnic ITB (POLBAN), Maridjo has extensive experience teaching a wide array of topics related to his expertise. His areas of instruction include predictive and preventive maintenance, lubrication systems, diesel engines, pumps, gas turbines, piping systems, compressors, boilers, and more. Maridjo has collaborated with numerous companies across Indonesia, such as Chevron, Semen Gresik, Semen Baturaja, Pertamina, and many others, providing training to employees from various sectors including oil and gas, cement, and power generation.
| Training Berikutnya: Bandung, 2 – 4 November, 2026

Hydraulic Fracturing Stimulation
2026-07-06 08:00 - 17:00 | Jawa Barat
Hydraulic Fracturing (HF) well stimulation is to enhance oil and gas well productivity. In addition to its application in low-permeability formations, HF is also essential when formation damage occurs during drilling or when productivity declines due to water intrusion and other factors. This technology has become a critical component in the development of both conventional and unconventional reservoirs. However, the complexity of Hydraulic Fracturing design and execution requires in-depth technical understanding to ensure safe and effective outcomes. Therefore, comprehensive training is essential to enhance personnel capabilities in selecting candidate wells, designing, and implementing HF treatments efficiently.
This training shall be able to equip participants with both technical knowledge and practical skills throughout the HF lifecycle—from reservoir evaluation to field execution. Through a case-based and hands-on approach, the program will help participants understand design parameters, use of simulation software, and QA/QC aspects of fracturing. Ultimately, participants are expected to contribute directly to increased production and improved operational efficiency. Soft copies of the training material are given to audience during the course for their future reference. The goal of the course is to increase the participant’s knowledge of stimulation services, to understand service-specific technical design, and operational considerations.
Participants will learn how to:
1. Understand and apply the rock mechanics/in-situ stress aspects of fracturing, reservoir aspects of fracturing (How much fracture do I need?), fracture mechanics, fracture design variables, perforating for fracturing, and fracture diagnostics.
2. Identify the data requirements and steps that have to be implemented to properly design hydraulic fracturing treatments
3. Evaluate and select stimulation candidates, and apply hydraulic fracturing concepts to various types of reservoir conditions to optimize well productivity
4. Recognize opportunities for substantial production improvements by application of effective hydraulic fracturing treatments
5. Collect pertinent well data and information needed to plan, design, implement, and evaluate fracturing treatments for the most common types of reservoirs
6. Realize the strengths and limitations of hydraulic fracturing theory as it relates to field applications
7. Play active roles in the different phases of typical hydraulic fracturing treatments
Recommended Participants

Production, reservoir, and drilling engineers, and others who have a basic understanding of hydraulic fracturing and need to enhance their knowledge about fracturing concepts and applications.
Laptops are required for this course. The instructors text, Hydraulic Fracturing, will serve as course material. Electronic PDF of presentation will also be given; participants must have Adobe read/write in order to take notes in electronic files.

Course Outline
1. Introduction to the fracturing process and mechanics
2. Fracture design concepts and methodologies
3. Fracturing fluid additives and proppant
4. Strengths and limitations of fracturing applications
5. Production increase
6. Factors involved in field implementation
7. Acid vs. proppant fracturing
8. Frac packing concepts
9. Water-fracking concepts
10. Horizontal well fracturing
11. QA/QC of fracturing treatments
12. Methods to evaluate fracturing treatment success

About The Course Leader
Instructor: Prof. Dr.-Ing. Bonar Tua Halomoan Marbun

Instrumentation, Electrical and Control System
2026-07-06 08:30 - 2026-07-08 16:00 | Jawa Barat
About the Course:
This course provides a comprehensive overview of Instrumentation, Electrical, and Control Systems, covering core concepts essential for modern industrial environments. Participants will explore the principles behind industrial instrumentation, electrical components, and the integration of control systems that drive automation and process optimization. The program delves into key areas such as sensors, signal transmission, actuators, and the operation of PID controllers within PLC and DCS frameworks.
The objective of this course is to equip participants with a strong understanding of the electronics behind instruments, interface devices, and control systems. Emphasis is placed on developing practical skills for configuring, maintaining, and tuning industrial control systems. By addressing both basic and advanced configurations of PID controllers, the course aims to enhance the participants’ ability to ensure stability and reliability in industrial processes.
Course Objectives:
Upon completion, participants will be proficient in understanding and applying the principles of instrumentation, electrical systems, and process control. They will gain hands-on experience with essential tools and techniques for system analysis, troubleshooting, and performance enhancement, contributing to more efficient and effective industrial operations.
Who Should Attend:

Control system operators responsible for maintaining and optimizing industrial processes.
Electrical and instrumentation technicians involved in system installation and maintenance.
Engineers engaged in the design, implementation, and improvement of control systems.
Project managers overseeing automation and instrumentation projects.

Course Content:

Introduction to Instrumentation, Electrical, and Control Systems
Static and Dynamic Characteristics of Instruments and Electrical Devices
Core Components of Instrumentation and Electrical Systems
Sensor Types, Functions, and Industrial Applications
Actuators and Their Role in Control Systems
Signal Transmission, Interfacing, and Digital Communication
Instrumentation and Electrical System Electronics
Feedback Concepts and Loop Control
Analysis and Optimization of Feedback Systems
PID Controllers: Configuration, Tuning, and Implementation
Electrical Control System Design and Troubleshooting
Practical Techniques for PID Tuning and Performance Enhancement
Laboratory Exercises and Real-World Demonstrations

About the Trainer:
Prof. Endra Joelianto, Ir., Ph.D., SMIEEE
Holds an Engineering Physics degree from ITB (1990) and a Ph.D. in Control Engineering from The Australian National University (2001). Expert in control engineering, specializing in Hybrid Control Systems, Discrete Event Control Systems, Petri Nets, Robust PID Controllers, Advanced Process Control, and Industrial Automation using PLC/DCS.
Prof. Endra is the coordinator of Intelligent Control and Automation and founder of the PLC Research Group at the Instrumentation and Control Laboratory (LINK), ITB. Established the Schneider-OMRON PLC Training Center at Maranatha Christian University, collaborating with Schneider Electric Indonesia, OMRON Japan, and Invensys WONDERWARE.
Prof. Endra has led several industrial automation and control training programs, including TPSDP Retooling Projects, and attended professional training in PLC, DCS, and instrumentation calibration in Indonesia, Singapore, and South Africa. He regularly instructs public, university, and in-house training for leading companies and institutions in the petrochemical, oil, gas, and manufacturing sectors.
Public Training berikutnya : 21 – 23 September, 2026 | 3 – 5 Desember, 2026

Gas and Diesel Engines
2026-07-06 08:30 - 2026-07-08 16:00 | Bandung, Jawa Barat, Indonesia
Background & About the Course:
Prime movers are essential for powering pumps, generating electricity, operating heavy machinery, and providing backup power during outages. Among the various types of prime movers, diesel engines are widely used in industrial applications, while gas engines are common in gas plant facilities due to their efficiency and reliability.
Understanding the operation and maintenance of gas and diesel engines is crucial to ensuring performance, longevity, and minimizing downtime. This course delivers practical knowledge on the principles, performance evaluation, routine maintenance, and troubleshooting of these engines.
Course Objectives:

Understand the principles of gas and diesel engine operation
Apply reliability-based maintenance strategies for both engine types
Evaluate engine performance effectively
Perform routine maintenance tasks
Troubleshoot engine issues efficiently
Define engine specifications based on operational requirements

Who Should Attend:

Maintenance Engineers, Superintendents, and Supervisors
Rotating Equipment Engineers, Superintendents, and Supervisors
Power Plant Engineers, Superintendents, and Supervisors
Individuals interested in expanding knowledge of engine operation and maintenance

Course Content:

Engine Fundamentals

Overview of engine components and their functions
Basic operating principles of internal combustion engines

Principles of Internal Combustion Engines

Four-stroke and two-stroke cycles
Thermodynamic principles and energy conversion

Gas vs. Diesel Engine Comparison

Key differences in design and performance
Advantages and limitations of each engine type

Combustion Processes and Requirements

Chemical process of fuel combustion
Air-fuel ratio and ignition systems

Fuel Systems for Gas Engines

Types of fuel delivery systems
Fuel storage and transfer processes

Lubrication Systems

Importance of engine lubrication
Types of lubricants and lubrication methods

Engine Control Module (ECM) Basics and Philosophy

Role of ECM in engine operation
Monitoring and controlling engine performance

Engine Setup and Performance Testing

Procedures for engine installation and alignment
Methods for assessing engine performance and efficiency

Maintenance, Operation, and Troubleshooting

Routine maintenance practices
Common engine problems and diagnostic techniques
Tools and strategies for effective troubleshooting

ABOUT THE COURSE LEADERS:
Maridjo, Drs, S.T., M.T
Maridjo, Drs, ST, MT., adalah alumni Teknik Mesin Institut Teknologi Bandung (ITB). Dia telah menjadi dosen di PEDC dan sekarang sebagai dosen di teknik mesin Polytechnique ITB (POLBAN). Telah mengajarkan banyak topik terkait keahliannya ke banyak perusahaan di Indonesia, seperti pemeliharaan prediktif dan preventif, energi audit , sistem pelumasan, mesin diesel, pompa, turbin gas, perpipaan dan perpipaan, kompresor, boiler, dan banyak lainnya. Banyak peserta dari perusahaan telah dilatih dan berkolaborasi dengannya seperti Chevron, Semen Gresik, semen Baturaja, Pertamina, Pusri, GGPC, karyawan Qatar dan perusahaan minyak dan gas Libya, UP IV Balongan pertamina, PT. Indocement, beberapa PLTA, beberapa hotel, PT.Pupuk Kujang, PT.Bio Farma, BPPT, PT. Bintang Agung, beberapa perusahaan minyak dan gas lain di Indonesia dan lain-lain. Beliau juga telah melakukan banyak Energi Audit di berbagai perusahaan bersama teamnya.
Public Training berikutnya : 26 – 28 Oktober, 2026 | 7 – 9 Desember, 2026

Risk Based Inspection (RBI)
2026-07-06 08:30 - 2026-07-08 16:00 | Bandung, Jawa Barat, Indonesia
Background & About the Course:
Risk-Based Inspection (RBI) is a systematic approach used to determine the inspection and maintenance strategy based on the risk assessment of equipment and assets. This method ensures that resources are allocated effectively by prioritizing inspections for critical components that have the highest risk of failure, thus improving safety, reliability, and cost-effectiveness. RBI helps to predict potential issues before they lead to system failures, reducing downtime and enhancing operational efficiency.
This course will provide participants with a comprehensive understanding of RBI concepts, methodologies, and practical applications. Attendees will learn how to implement RBI strategies, perform risk assessments, and develop inspection plans tailored to specific assets. By integrating risk management into the inspection process, organizations can make informed decisions that optimize asset performance while minimizing risks.
Course Objectives:
By attending this workshop, you will be able to:

Understand the principles and objectives of Risk-Based Inspection
Learn how to conduct risk assessments for various types of assets
Develop and implement effective RBI strategies
Prioritize inspection activities based on risk analysis
Apply RBI techniques to improve asset reliability and operational safety
Manage and document inspection results and follow-up actions

Who Should Attend:
This course is ideal for:

Asset Integrity Managers and Engineers
Maintenance Managers and Supervisors
Inspection Engineers and Technicians
Risk Management and Safety Officers
Professionals involved in equipment maintenance and reliability
Project Managers and Engineers working in plant operations

Course Content:

Introduction to Risk-Based Inspection (RBI)

Definition and importance of RBI
Principles and benefits of implementing RBI
Key components of an effective RBI program

Risk Assessment Methodology

Understanding risk: likelihood vs. consequence
Risk matrices and scoring systems
Performing risk analysis for different types of assets

RBI Strategy Development

Developing RBI strategies for critical assets
Prioritizing inspections based on risk analysis
Establishing inspection intervals and resource allocation

Inspection Planning and Execution

Designing effective inspection plans
Integrating RBI with existing maintenance programs
Executing inspections based on RBI recommendations

RBI Implementation and Documentation

Implementing RBI strategies across different asset types
Documentation and record-keeping for inspections
Analyzing and reporting inspection findings
Managing follow-up actions and ensuring compliance

Case Studies and Practical Applications

Real-world examples of RBI in various industries
Analyzing case studies and discussing challenges
Group exercises on developing RBI strategies

ABOUT THE COURSE LEADER:
Ir. Deddy Nugraha and Team
Ir. Deddy Nugraha, menyelesaikan pendidikan sarjana dari Teknik Mesin – Institut Teknologi Bandung, yang kemudian mendalami bidang Power Plant (Gas Turbine, Steam Turbine, Pump & Compressor) khususnya di bidang Reliability, Quality, dan Maintenance Management. Berpengalaman sebagai Senior Propulsion Engineer di Universal Maintenance Center PT. IPTN (1991 – 2002) dan sekarang sebagai Reliability Engineer dan Professional Training Instructor. Pengalaman sebagai instruktur training adalah di PT. Tjiwi Kimia, PT. Suparma, PT. Indah Kiat Pulp & Paper, PT. Indonesia Power, British Petroleum, PT. Pertamina, PT. Krakatau Steel, PT. Amoco Mitsui, PT. Semen Gresik, Indocement Tunggal Prakarsa, PT. Puncak Jaya Power, Medco Energy dsb
| Training Berikutnya: 26 – 28 Oktober 2026, Bandung

Oil and Gas Processing Plants
2026-07-07 08:30 - 2026-07-09 16:00 | Bandung, Jawa Barat, Indonesia
Background & About the Course:
Industri minyak dan gas memerlukan pemahaman mendalam mengenai proses pengolahan yang efisien untuk mengubah bahan baku menjadi produk yang dapat digunakan, seperti gas alam dan minyak mentah yang sudah diproses. Pengolahan ini mencakup berbagai tahapan yang melibatkan teknologi tinggi dan sistem yang kompleks, dari pemisahan gas dan cairan hingga pengolahan komponen kimia yang dihasilkan. Untuk memastikan kinerja optimal dan mengurangi risiko operasional, para profesional harus memiliki pengetahuan yang kuat tentang teknik dan prinsip dasar dalam pengolahan minyak dan gas.
Pelatihan ini akan memberikan pemahaman yang komprehensif tentang berbagai sistem yang ada dalam plant pengolahan minyak dan gas, mulai dari unit pemrosesan hingga sistem pemantauan dan kontrol. Fokus pelatihan ini adalah untuk membantu peserta mengidentifikasi tantangan yang ada dalam proses pengolahan serta cara-cara untuk meningkatkan efisiensi dan keselamatan operasi. Dengan materi yang praktis dan berbasis pada studi kasus, peserta akan memperoleh keterampilan yang dapat langsung diterapkan di lapangan.
Course Objectives:

Memahami prinsip dasar dan alur proses di Oil & Gas Processing Plant.
Mengenal berbagai unit dan teknologi yang digunakan dalam pengolahan minyak dan gas.
Mengidentifikasi dan mengelola potensi masalah operasional di plant pengolahan.
Menerapkan teknik pemisahan, distilasi, dan pengolahan gas serta cairan.
Memahami pentingnya keselamatan dan efisiensi dalam pengolahan minyak dan gas.
Menilai dan meningkatkan kinerja plant melalui optimasi proses.
Menerapkan prosedur pemantauan dan kontrol untuk menjaga kualitas dan kuantitas produk.

Who Should Attend:

Production Operation
Maintenance
Operation Manager
Project Engineer
HSE Engineer

Course Content:

Fundamentals Controlling Production
Overview of Production Processes
Separators & Pressure Vessels
Emulsions & Oil treating
Water Treatment
Gas Sweetening
Plant Piping & Pipelines
Measurement
Process Control & Safety Systems

ABOUT THE COURSE LEADERS:
Ir. In Jumanda Kasdadi, M.T
In addition to his duty as lecturer, Mr. Jumanda has delivered almost 280 trainings (public & in-house) in various types of industries, especially for oil and gas companies since 1997. He holds Bachelor and Master Degrees in Chemical Engineering degrees from the Institute Technology Bandung. He has also taken courses for 9 topics in The Oil & Gas fields at PETEX (Petroleum Extension), University of Texas at Austin, in Houston, Texas, USA (2018).
Beyond his formal educations, he has many other professional certificates; Lecturer Certificate from Indonesia Minister of Education; Construction, Electrical and Fire Protection Certificates from HSE Association Indonesia (ALPK3); Risk Based Inspection (RBI) Facilitator, Instrumentation Engineering Design for Oil & Gas Project with INtools (Ref.No OGC01-170516200516-2839); HAZOPS and HAZID Certificates from Indonesia Certifying Agency (BNSP).
Companies where he delivered the training to are mostly major intensive capital such as Pertamina, PHE, PHI, PHR, PHKT, PGN, Chevron, ConocoPhillips, Total Indonesie, CNOOC, Medco, Petrochina, Star Energy, Freeport, Mubadala, Indonesia Power, Geothermal Companies, KAI, US Consulate, Freeport, SKK Migas, Titas (Bangladesh), and petrochemical & mining and others.
Ir. In Jumanda K, MT was directly involved in many projects of Feasibility Studies (FS), and further Front-End Engineering Design (FEED), Detail Engineering Design for Construction (DEDC) in oil/gas industry, Risk-Based Inspection (RBI), HAZID, HAZOPS, QRA, FTA, SIL Classification, etc; for national and international companies.

Project Construction Management
2026-07-08 08:00 - 17:00 | Jawa Barat
Project Construction Management atau Manajemen Konstruksi Proyek, merujuk pada proses perencanaan, pengorganisasian, pengelolaan, dan pengawasan semua aspek dari suatu proyek konstruksi. Tujuannya adalah untuk memastikan bahwa proyek konstruksi berjalan dengan efisien, tepat waktu, sesuai dengan anggaran, dan memenuhi standar kualitas yang ditetapkan.
Project Construction Management adalah training yang dirancang untuk membekali peserta dengan pengetahuan dan keterampilan yang diperlukan untuk berhasil mengelola proyek konstruksi. Program ini mencakup berbagai aspek, mulai dari perencanaan awal hingga pengawasan pelaksanaan proyek, dengan fokus pada manajemen sumber daya, kontrol kualitas, manajemen risiko, dan aspek-aspek kunci lainnya. Peserta akan terlibat dalam studi kasus, simulasi, dan diskusi untuk mengembangkan pemahaman praktis tentang manajemen proyek konstruks
Objectives:
– Memahami konsep dasar manajemen konstruksi dan siklus hidup proyek.
– Mampu menyusun rencana proyek yang komprehensif, termasuk jadwal waktu dan anggaran.
– Mengelola tim proyek dengan efektif, termasuk komunikasi yang baik dan penanganan konflik.
– Memahami dan menerapkan prinsip-prinsip manajemen sumber daya, termasuk tenaga kerja, peralatan, dan material.
– Memahami aspek-aspek hukum dan kontrak yang terkait dengan proyek konstruksi.
– Menerapkan program kontrol kualitas dan menjaga standar keselamatan yang tinggi.
– Mengelola risiko proyek, internal & external stake-holders dan mampu merespon perubahan dan tantangan yang muncul
– Menyusun laporan kemajuan proyek dan berkomunikasi dengan pemangku kepentingan secara efektif.
Recommended Participants:

– Project Manager dan Project Officer
– Supervisor, Koordinator Tim Proyek
– Staf Perencanaan dan Pengendalian Proyek
– Siapa saja yang terlibat dalam pengelolaan proyek yang ingin mendalami bidang Project Construction Management.

Course Outline:
1.Prinsip Dasar Manajemen Konstruksi:

Definisi dan konsep dasar manajemen konstruksi.
Tahapan dan siklus hidup proyek konstruksi.
Peran dan tanggung jawab manajer konstruksi.

2. Perencanaan Proyek Konstruksi:

Penyusunan rencana proyek, termasuk jadwal waktu dan anggaran.
Identifikasi risiko dan strategi mitigasi.
Pemilihan metode konstruksi dan teknologi yang sesuai.

3. Manajemen Tim dan Komunikasi:

Pembentukan tim proyek dan penempatan peran.
Komunikasi efektif di antara anggota tim dan pemangku kepentingan.
Manajemen konflik dan pemecahan masalah.

4. Manajemen Sumber Daya:

Pengelolaan tenaga kerja, peralatan, dan material.
Pengelolaan logistik dan rantai pasok konstruksi.
Optimalisasi penggunaan sumber daya untuk efisiensi biaya.

5. Manajemen Kontrak dan Hukum Konstruksi:

Proses penawaran, negosiasi, dan penandatanganan kontrak.
Hak dan kewajiban kontraktor, pemilik proyek, dan pihak terkait.
Penanganan perubahan dan perselisihan kontrak.

6. Pengendalian Kualitas dan Keselamatan:

Program kontrol kualitas dalam konstruksi.
Keselamatan kerja dan kepatuhan terhadap peraturan keselamatan.
Inspeksi dan audit kualitas.

7. Manajemen Risiko:

Identifikasi, evaluasi, & mitigasi risiko proyek konstruksi.
Pengelolaan risiko selama pelaksanaan proyek.
Mengelola internal & eksternal stakeholders

8. Evaluasi dan Pelaporan Proyek:

Pembuatan laporan kemajuan proyek.
Evaluasi kinerja proyek dan identifikasi pembelajaran untuk proyek selanjutnya.
Penyampaian laporan kepada pemangku kepentingan.

About The Course Leader:

Dr. Ir. Syahril, BSCE., M.T., IPU., ASEAN Eng., APEC Eng
| Training Berikutnya: 16 – 18 November 2026, Bandung

Produced Water Management
2026-07-08 08:00 - 2026-07-10 16:00 | Bandung, Jawa Barat, Indonesia
Background:
Produced water merupakan fluida dengan volume terbesar yang dihasilkan dalam operasi minyak dan gas. Seiring meningkatnya usia lapangan, rasio produced water terhadap hydrocarbon cenderung meningkat dan menimbulkan tantangan teknis, lingkungan, serta biaya operasi yang signifikan. Dengan demikian Produced Water Management menjadi isu teknis, lingkungan, dan ekonomi yang kritikal.
Pengelolaan produced water yang efektif membutuhkan pemahaman terintegrasi mulai dari karakteristik fluida, teknologi pengolahan, hingga strategi pembuangan atau pemanfaatan ulang seperti reinjection. Yang paling penting justru untuk memastikan re-injection tidak mengakibatkan formation damage. Pelatihan ini dirancang untuk membekali peserta dengan pemahaman praktis dan teknis agar mampu mengelola produced water secara aman, efisien, dan sesuai regulasi.
Objectives:
• Memahami karakteristik dan sumber produced water pada operasi migas
• Mengidentifikasi tantangan operasional dan risiko lingkungan produced water
• Menjelaskan teknologi pengolahan produced water sesuai tujuan pengelolaan
• Memahami konsep dan persyaratan produced water reinjection
• Mengevaluasi strategi produced water management yang efektif dan berkelanjutan
• Mendukung kepatuhan terhadap regulasi lingkungan dan internal company standard
Recommended Participants:

• Production Engineer
• Process Engineer
• Facility Engineer
• Reservoir Engineer
• Operation & Maintenance Supervisor
• HSE Engineer

Course Outline:
Fundamentals of Produced Water
1. Introduction to Produced Water
• Definition and sources of produced water
• Produced water generation mechanisms
• Produced water trend during field life
2. Characteristics of Produced Water
• Physical and chemical properties
• Oil, grease, solids, salts, and chemical additives
• Produced water variability by reservoir and process
3. Impacts of Produced Water
• Impact on production and facilities
• Corrosion, scaling, fouling, and emulsion issues
• HSE and environmental implications
4. Overview of Produced Water Management Strategy
• Management hierarchy (minimize, treat, reuse, dispose)
• Integration with production and facility design
• Cost and risk consideration
Produced Water Treatment & Disposal Options
1. Treatment Technologies
• Primary separation (gravity, hydro-cyclone)
• Secondary treatment (flotation, filtration)
• Tertiary / polishing treatment
• Chemical treatment overview
2. Disposal Options
• Overboard discharge concept and limitations
• Disposal well basics
• Selection criteria for disposal options
3. Reuse Concepts
• Reuse for injection purposes
• Reuse for utility or industrial application
• Technical and regulatory considerations
Produced Water Reinjection & Best Practices
1. Produced Water Reinjection (PWRI)
• Objectives of produced water reinjection
• Produced water chemical study
• Inject water compatibility study
• Produced water treatment requirements prior to injection
• Injection well and reservoir considerations
• Reservoir response and monitoring post-injection
2. Regulatory, Environmental & Monitoring Aspects
• Regulatory framework for produced water discharge & injection
• Monitoring parameters and reporting
• Environmental risk management
3. Best Practices & Lessons Learned
• Operational best practices in produced water management
• Common failure modes and mitigation
• Case examples from oil & gas fields
Training Methodology:
• Classroom presentation
• Technical discussion
• Practical examples and case-based explanation

About The Course Leader:
Ir. In Jumanda Kasdadi, M.T./ Vitus Denny/ Alief Bakhtiar
Public Training berikutnya : 15 – 17 Desember, 2026

Process Safety & Asset Intergrity Management System
2026-07-08 08:00 - 2026-07-10 17:00 | Jawa Barat
Background:
Process Safety & Asset Intergrity Management System, biasanya merupakan dua hal yang terpisah. Padahal keselamatan proses (Process Safety) dan integritas aset (Asset Integrity) merupakan fondasi utama dalam industri migas yang berisiko tinggi. Kegagalan pengelolaan kedua aspek ini bisa menimbulkan kerugian besar, baik dari sisi manusia, lingkungan, maupun bisnis.
Process Safety & Asset Integrity Management System (PSAIMS) adalah kerangka kerja komprehensif yang menyatukan keduanya untuk memastikan operasi yang andal, aman, dan berkelanjutan dengan menghadirkan 2 narasumber dengan kompetensi yang saling melengkapi. Jadi, PSAIMS adalah sistem manajemen yang menyatukan keselamatan proses dan integritas aset secara menyeluruh untuk meningkatkan keamanan dan keandalan operasi aset industri.
Objectives:
– Memberikan pemahaman menyeluruh tentang elemen-elemen kunci PSAIMS.
– Membekali peserta dengan keterampilan identifikasi bahaya, manajemen risiko, dan kontrol kritis.
– Mengasah kompetensi inspeksi, pemeliharaan, audit, dan tanggap darurat.
– Mendorong budaya keselamatan berkelanjutan di seluruh level organisasi.

Recommended Participants:
– Manajer/supervisor bidang operasi, maintenance, engineering.
– Personel K3, HSSE, reliability, asset integrity, dan QA.
– Kontraktor dan tenaga pendukung yang terlibat dalam manajemen aset dan keselamatan proses.
– Profesional migas yang mengelola risiko dan keselamatan operasional.

Course Outline:
Process Safety Management (PSM) – Pondasi Keselamatan Proses & Pencegahan Major Incident:
1. Pengenalan PSAIMS dan integrasi PSM–AIMS:
– Evolusi regulasi & standar (OSHA PSM, API, OGP)
– Hubungan PSM dengan AIMS
2. Identifikasi bahaya & analisis risiko:
– Metode HAZID, HAZOP, LOPA
– Contoh penerapan di fasilitas migas
3. Prosedur operasi & safe working practices:
– Permit to Work, isolasi energi, job safety analysis
4. Rencana tanggap darurat & manajemen krisis:
– Incident Command System (ICS)
– Koordinasi internal & eksternal
– Safety Leadership dalam Process Safety
Asset Integrity Management (AIMS) – Bagian I, Kerangka Kerja AIMS & Pengendalian Technical Integrity:
1. Prinsip & framework AIMS:
– Konsep SECE (Safety & Environmental Critical Elements)
– Lifecycle management asset
2. Inspeksi, pemeliharaan & condition monitoring:
– RBI (Risk-Based Inspection)
– NDT & predictive maintenance
3. Pengelolaan aset aging & decommissioning:
– Tantangan peralatan tua
– Infrastruktur pendukung (pipeline, storage, utilities)
4. Kesiapan operasi & Pre-Startup Safety Review (PSSR)
5. Transformasi digital dalam AIMS:
– IoT, digital twin, dashboard integritas asset
Asset Integrity Management (AIMS) – Bagian II & Continuous Improvement, Respon darurat, evaluasi kinerja & budaya keselamatan:
1. Monitoring kinerja & penilaian risiko berkelanjutan:
– KPI PSAIMS
– Leading vs lagging indicators
2. Audit & review PSAIMS:
– Internal/ external audit
– Gap analysis & benchmarking
3. Investigasi insiden & analisis akar masalah:
– Metode RCA, 5 Why, Bow-Tie
– Case study interaktif
4. Management of Change (MoC):
– Prinsip, prosedur, dan kendala lapangan

About The Course Leaders: (practitioners)
1. Ir. In Jumanda Kasdadi, M.T.
2. Ir. Deddy Nugraha, CMRP, CLA
Public Training berikutnya : 25 – 27 November, 2026

Balance Score Card, Strategy and Implementation
2026-07-08 08:30 - 2026-07-11 16:00 | Bandung, Jawa Barat, Indonesia
Background & About the Course:
BSC/Balance Score Card, Strategy & Implementasi merupakan suatu rangkaian yang tidak terpisahkan, mulai dari system BSC, strategi dan pelaksanaannya.
Kinerja perusahaan akan sangat bergantung pada metodologi penilaian kinerja yang memandang ke pada rencana strategis perusahaan di masa yang akan datang. Dalam Balance Score Card, perspektif mengenai investasi dalam jangka panjang untuk pelanggan, pembelajaran dan pertumbuhan karyawan termasuk manajemen, dan proses bisnis internal demi memperoleh hasil-hasil financial yang memungkinkan perkembangan organisasi bisnis ke tingkat yang baik.
Training Objectives:
Dalam pelatihan ini peserta akan belajar secara praktis untuk melakukan pengukuran kinerja perusahaan berbasis Balance

Memahami konsep dasar Balance Scorecard sebagai sistem manajemen untuk mencapai visi, melaksanakan misi, menjalankan nilai dan sasaran perusahaan.
Scorecard dan merumuskan Key Performance Indicator BOD, Directors, dan Managers untuk mencapai visi dan melaksanakan misi perusahaan serta fokus pada strategi.
Mengklarifikasi dan menterjemahkan visi dan strategi perusahaan.
Menyamakan persepsi seluruh jajaran di perusahaan sehingga dapat menjalankan langkah strategis dengan fungsi lainya dalam manajemen sehari hari.
Merencanakan dan menetapkan target yang selaraskan dengan inisiatif (program) strategis.
Mengkomunikasikan tujuan strategis dalam ukuran-ukuran kinerja.

Who Should Attend:
Top Level Management, Manager, Assistant Manager, Supervisor
METHODS:

25% materi konsep
10% teori berdasarkan literatur praktisi
40% latihan pengisian form dan dokumen standar
25% studi kasus.dan demo software

Course Content:

Visi, Misi, dan Nilai Perusahaan
Prinsip dan Konsep Balance Score Card
Proses Penyusunan Balanced Scorecard
Perspektif BSC:

Financial Perspective
Customer Perspective
Internal Process Perspective
Learning & Growth Perspective

Scorecard untuk SDM
Membuat Peta Rencana Strategis
Key Performance Indicators (KPI)
The Strategic Map

The Strategy” using a “Cause and Effect”
Ukuran Hasil Strategis (Lag Indicator)
Pendorong Kinerja (Lead Indicator)
Inisiatif strategis

Langkah-Langkah Implementasi Balanced Score Card
Strategic Objectives and Exercise
Strategic Initiatives and Exercise
Workshop & Action Plan BSC

ABOUT THE COURSE LEADERS:
Dr. Djadja Achmad Sardjana, S.T., M.M.
Senior Executive di bidang Strategic Planning, Business Expansion, Project Management, Quality, Knowledge Management, Human Capital Learning, Corporate University dan Operation di AT&T, Lucent Technology Indonesia, Area West, M-Web, Motorola dan Sampoerna Telekom
Ahli strategi manajemen dan pemasaran dengan catatan prestasi 25+ tahun dan menunjukkan keberhasilan berbisnis dalam keadaan pasar yang sangat kompetitif. Memiliki kekuatan dalam mendorong pertumbuhan pendapatan perusahaan dan meningkatkan kinerja bisnis. Eksekutif luar biasa, mentor dan trainer dengan kemampuan untuk membangun organisasi pembelajaran perusahaan dan manajemen pengetahuan, proses bisnis baru, mengamankan loyalitas pelanggan, dan menjalin hubungan yang kuat dengan mitra bisnis eksternal. Dosen di sebuah perguruan tinggi.

Proactive Maintenance
2026-07-13 08:00 - 2026-07-15 16:00 | Bandung, Jawa Barat, Indonesia
Background
Proactive Maintenance is a strategic approach to identifying and resolving potential equipment failures before they occur. This maintenance method focuses on improving asset reliability and minimizing downtime risks.
While wear and tear are inevitable in equipment lifecycles, a well-planned proactive maintenance strategy can extend asset lifespan and enhance overall performance. By addressing hidden operational inefficiencies, proactive maintenance lowers both maintenance and operational costs. Equipment running at optimal condition consumes less energy, while machines nearing failure are less efficient and negatively impact productivity.
Objectives
By the end of this Proactive Maintenance Training, participants will be able to:

Protect company equipment and tools from damage, extending their lifespan
Minimize downtime
Boost company profits
Make informed decisions through proactive maintenance practices

Course Outline

How to implement a proactive approach to equipment care
Lubrication excellence programs
Precision maintenance skills: alignment and balance
Basics of training program design
RCM (Reliability-Centered Maintenance) process for small businesses
How maintenance planning saves time and money
Equipment and process design using RCM and RCD (Reliability-Centered Design)
Developing written rebuild procedures
Root Cause Analysis (RCA) for problem-solving
Leveraging suppliers for operational efficiency
Techniques for equipment specification
Enhancing efficiency through Computerized Maintenance Management Systems (CMMS)

Participants
This course is ideal for managers, supervisors, engineers, planners, foremen, and technicians. It’s also suitable for professionals in operations, engineering, and purchasing who want to understand how maintenance quality impacts their roles.
Training Methods

Presentations
Discussions
Case Studies
Evaluations

About the course leader:
Maridjo, Drs, S.T., M.T
Public Training berikutnya : 12 – 14 Oktober, 2026

RCM (Reliability Centered Maintenance)
2026-07-13 08:00 - 2026-07-15 16:30 | Bandung, Jawa Barat, Indonesia
BACKGROUND:
Reliability Centered Maintenance (RCM) is a crucial approach for enhancing maintenance programs, especially in sectors like energy, manufacturing, and petrochemicals. By adopting RCM, organizations can avert costly equipment failures through predictive and preventive maintenance strategies. This RCM training for Maintenance Energy 2024 will equip participants with the essential skills to implement effective maintenance strategies, thereby lowering operational costs and ensuring seamless production and asset reliability.
Teams that utilize RCM focus on maintenance planning, monitoring asset conditions, and employing predictive and preventive maintenance to prevent expensive equipment breakdowns.
This Reliability Centered Maintenance course is particularly advantageous for continuous process industries that rely on complex and costly production equipment, including sectors such as mining, electricity generation, petrochemicals, marine, manufacturing, automotive, assembly, aviation, construction, pulp and paper, and oil and gas. The course is structured to address the need for reliable maintenance methods to ensure successful production and to minimize breakdowns or unexpected disruptions. As facilities increasingly adopt automated systems, the demand for efficient and effective maintenance methods becomes even more critical. Delayed improvements in maintenance operations can lead to significant losses, including decreased productivity, wasted labor hours, production delays, major equipment failures, and strained customer relationships.
Additional consulting and implementation support is recommended to ensure that companies realize the full value of these benefits.
OBJECTIVES:
Upon completion of this training, participants will be able to:

Understand Reliability Centered Maintenance (RCM) as a foundation for implementing maintenance management and as a cost management tool within project management.
Grasp the maintenance philosophy based on the evolution of maintenance practices: the first generation (breakdown maintenance) and the second generation (preventive maintenance).
Anticipate potential failures by identifying the types of failures that may occur.
Comprehend the root causes of failures.
Reduce maintenance costs while maximizing equipment capacity.

TARGETTED PARTICIPANTS:
This course is intended for:

Maintenance Engineers, Superintendents, and Supervisors
Rotating Engineers, Superintendents, and Supervisors
Power Plant Engineers, Superintendents, and Supervisors
Manufacturing Managers
Anyone interested in expanding their knowledge on these topics

TRAINING CONTENT:
Theory Basic Maintenance

Definition of Maintenance
Various Type of Maintenances (PM, PdM, TQM, RCM, CBM)
Reliability, Maintainability and Availability.
Key Performance Indicator (KPI) for Maintenance
Overall Equipment Effectiveness (OEE) Determination

Functional Failure Analysis (FFA)

Operational Context
Functional Failure (Failed States)
Root Cause Failure Analysis – Turbine, Pumps, Motor, Generator and Others.

Critical Item Selection

Risk (Criticality) Matrix
Likelihood of Failure Formulation and Scoring

Consequence of Failure Formulation and Scoring
About the course leader:
Ir. Deddy Nugraha, CMRP and Team

Public Training berikutnya : 23 – 25 November, 2026

Integrated Reservoir Management
2026-07-13 08:00 - 2026-07-15 16:30 | Bandung, Jawa Barat, Indonesia
Background:
Integrated Reservoir Management (IRM) is a structured approach to maximize the value of hydrocarbon assets by combining G&G, Reservoir Engineering, Drilling, Completion, Production, and Economic considerations into a single framework. Through effective integration of data and disciplines, operators can improve recovery factors, extend field life, and optimize development plans. This is where “Integrated” play crucial roles.
In practice, however, many engineers tend to focus narrowly on their own disciplines. For example, Production and Completion Engineers often prioritize well deliverability without paying sufficient attention to reservoir behavior, while geoscientists may overlook operational constraints. These siloed approaches lead to inefficiencies, missed opportunities, and suboptimal recovery. A proper IRM program helps overcome these bad habits by fostering collaboration, aligning objectives, and ensuring every decision accounts for both well performance and reservoir sustainability.
Objectives:

Understand the principles and importance of integrated reservoir management
Recognize the risks of siloed decision-making and the value of cross-disciplinary collaboration
Strengthening Production & Operations involvement in reservoir management
Apply multidisciplinary approaches to reservoir characterization and development
Evaluate production performance and identify opportunities for reservoir optimization
Develop reservoir surveillance programs and integrate monitoring data
Apply enhanced oil recovery (EOR) and improved oil recovery (IOR) strategies.
Build effective collaboration between geoscience, engineering, and operations teams.

Recommended Participants:

Reservoir Engineers
Geologists and Geophysicists
Production and Petroleum Engineers
Drilling and Completion Engineers
Field Development Planners
Decision Makers in Reservoir Development

Course Outline:
1. Introduction to Integrated Reservoir Management

Definition, scope, and objectives of IRM
Common bad habits: “my wells vs. your reservoir” mindset
Why integration matters for maximizing recovery

2. Reservoir Characterization

G&G data integration and Petrophysical evaluation
Reservoir modeling fundamentals

3. Reservoir Engineering Fundamentals

Material balance and decline curve analysis
Fluid flow in porous media
Drive mechanisms and recovery factors

4. Collaboration with Production & Operations Team in Reservoir Surveillance

Role of Production and Operations
Daily well monitoring and field reporting as surveillance inputs
Building cross-disciplinary awareness between reservoir and Operations

5. Production Data and Performance Evaluation

Well performance analysis & reservoir pressure data
Identifying production bottlenecks
Bridging production/well focus with reservoir sustainability

6. Reservoir Surveillance and Monitoring

Tools and techniques for surveillance
Production logging, pressure monitoring, tracer methods
Integrating real-time data for decision making

7. Reservoir Management Strategies

Primary, secondary, and tertiary recovery methods
Waterflooding and gas injection strategies
IOR/EOR project screening and evaluation

8. Field Development Planning

Reservoir simulation for forecasting and planning
Well placement and infill drilling strategies
Balancing short-term production goals with long-term recovery

9. Risk Management in Reservoir Development

Identifying and mitigating uncertainties
Sensitivity analysis and scenario planning
Cross-disciplinary decision-making

10. Case Studies and Best Practices in IRM

Lessons learned from siloed vs. integrated approaches
How poor coordination wastes reservoir potential
Group discussion and application exercise

About The Course Leader:
Prof. Dr.-Ing. Bonar Tua Halomoan Marbun

Power Plant Performance Test
2026-07-13 08:30 - 2026-07-15 16:00 | Bandung, Jawa Barat, Indonesia
Background & About the Course
The primary reasons for conducting a power plant performance test include:

Identifying the baseline performance of the power plant under various operating conditions.
Quantifying performance improvements before and after major maintenance outages.
Verifying whether the power plant meets the specifications outlined in the applicable purchase contract, determining if liquidated damages or corrective actions are necessary.

Performance tests are typically conducted after the construction or retrofit of a plant to ensure it can achieve guaranteed parameters and function as intended. This 3-day training is designed to equip participants with the knowledge necessary for evaluating power plant testing and implementing efficiency improvements.
Course Objectives
Participants will be able to:

Demonstrate a working knowledge of terminology associated with plant efficiency.
Describe thermodynamic principles.
Define terms such as entropy, enthalpy, latent heat, and sensible heat rate.
Understand the thermodynamic processes involved in each component of a power plant.
Explain how changes in heat rate affect operating costs.
Describe the basic principles of boilers, steam turbines, and heat exchangers.
Analyze how boilers, turbines, and heat exchangers impact heat rate.
Identify common areas of efficiency loss in power plants.
Explain the principles of plant efficiency testing using the ASME Performance Test Code.
Evaluate data and develop plans for improvements.

Who Should Attend
This training is recommended for:

Power Plant Operators
Process and Engineering Staff
Management and Business Staff involved in power plant operations

Course Content

ASME Performance Test Code
Thermodynamics
Steam Generators: Theory, heat transfer, fuel considerations, auxiliary equipment, etc.
Steam Generator Combustion Theory & Equipment: Theory and equations, fuel analysis, combustion equipment, efficiency testing, and monitoring
Steam Turbines: Theory, types, construction details, valves, and efficiency
Factors Influencing Turbine Efficiency: Steam conditions, exhaust loss, size, configuration, mode of operation, mechanical condition, etc.
ASME Performance Test Code for Turbines: Practical aspects of turbine testing, thermal kits, generator corrections, heat rate calculations, primary flow calculations, diagnosing turbine problems, and examples of testing programs
Power Plant Heat Exchangers: Heat transfer theory and condenser testing
Factors Affecting Heat Exchanger Performance: Low circulating water flow rate, high air leakage, fouled tubes, high inlet water temperature, load reduction, etc.
Centrifugal Pumps: Theory, design and construction, testing, and monitoring operations
Measuring Equipment: Temperature, pressure, flow, electrical, flue gas, data logging, and computer systems
Evaluation: Statistics, test design, data analysis, and trending

ABOUT THE COURSE LEADER:
Dr. Willy Adriansyah, ST, MM graduated from Bandung Institute of Technology specializing on energy conservation. Post graduate program also obtained from ITB while the Doctoral is from Norway.
In addition to his duty as a lecturer, he has got abundant of real industrial experiences especially in power generation & oil/gas companies. Since 2013 he has completed many power generation performance tests; Cilegon, Lumut Balai, Ulu Belu, Dieng, Patuha and also other piping & coal handling optimization related to power generation.
Clients uses his services such as: PT. Indonesia Power, PT. Star Energi, PT. PLN, Total Indonesie, PT. Pama Persada, Chevron & Pertamina.
Public Training berikutnya : 16 – 18 November, 2026
