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Process Plant Optimisation, Revamping, and Debottlenecking

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DateVenueDurationFees
13 Jul - 17 Jul, 2026 Dubai 5 Days $5775
19 Oct - 23 Oct, 2026 Dar Es Salam 5 Days $5775
Did you know you can also choose your own preferred dates & location? Customize Schedule
DateFormatDurationFees
09 Jun - 11 Jun, 2026 Live Online 3 Days $2625
07 Sep - 11 Sep, 2026 Live Online 5 Days $3785
07 Dec - 25 Dec, 2026 Live Online 15 Days $11515

Course Overview

The optimisation of process plants requires effective management of maintenance operations and equipment, along with plant reliability and durability. What is plant Optimisation? The vital aspects of process plant optimisation are related to system energy management and the reduction of energy consumption. Many industrial processes and systems currently offer significant potentials for savings. However, bringing significant process changes such as modern controls and newer technologies can also enhance the opportunities for plant optimisation.

What is the meaning of debottlenecking? Why is this “Process Plant Optimisation, Revamping and Debottlenecking” training program crucial for effective process plant management? The main aim of a revamp is to improve basic parameters like volume or processing efficiency. Revamping and debottlenecking require flexibility in planning and proficiency in the right engineering gear. This Zoe training course will provide you with a comprehensive view of the process of how to optimise offsite plant operations including design, storage facilities, and inventory management, understand utility management, and expand your knowledge on optimisation, revamping, and debottlenecking process plants.

Why This Course Is Required?

Process plant optimization, revamping, and debottlenecking are essential strategies for enhancing throughput, efficiency, and profitability in aging industrial assets without the cost of new construction where industry case studies confirm that targeted upgrades, smart revamp projects, and debottlenecking deliver sustained capacity gains, energy savings, and operational resilience while maintaining safety and compliance. The complexity of modern industrial operations requires specialized knowledge in optimization methodologies and project management where companies that invest in these strategies unlock capabilities to meet growing market demand, adapt to stricter regulations, and improve returns while leveraging engineering best practices, advanced modeling, and innovative maintenance planning to ensure sustainable competitive advantage.

The essential need for comprehensive training in process plant optimisation, revamping, and debottlenecking is underscored by its critical role in increased plant capacity and productivity where proper understanding of targeted upgrades and debottlenecking projects is crucial for achieving 20-33% increases in plant capacity while elevated overall equipment effectiveness can be implemented in record time under operational constraints. Process plant optimization professionals must master the principles of lower operating costs and higher efficiency, understand improved compliance and risk management frameworks, and apply proper engineering and project management methodologies to ensure organizations achieve enhanced safety outcomes, smoother regulatory audits, and competitive advantage through systematic equipment reviews and modernization.

Research demonstrates that process plant optimization, revamping, and debottlenecking are essential strategies for enhancing throughput, efficiency, and profitability in aging industrial assets without the cost of new construction, with industry case studies confirming that targeted upgrades, smart revamp projects, and debottlenecking deliver sustained capacity gains, energy savings, and operational resilience while maintaining safety and compliance, as companies that invest in these strategies unlock capabilities to meet growing market demand while leveraging engineering best practices and advanced modeling.

Course Objectives

Following the completion of this Process Plant Optimisation, Revamping and Debottlenecking training program effectively, delegates will be able to:

  • Understand plant optimisation and energy conservation in detail
  • Describe and practice the managerial tools needed to effectively optimise plant operations
  • Evaluate the concept of capacity creep and discuss the methodology of the cost-effective debottlenecking strategies
  • Implement systematic methods of optimising plant reliability including root cause failure analysis, logic diagrams, fault trees, etc.
  • Identify the role and importance of management and enterprise information systems in plant optimisation
  • Acquire knowledge on risk management in process plant optimisation
  • Describe utility management and rehabilitation in revamping and debottlenecking
  • Assess the maintenance, energy, utilities, environmental, and safety parameters in revamping and debottlenecking
  • Analyse economic, planning, and other project management issues
  • Advanced competency in process flow diagram (PFD) and piping & instrumentation diagram (P&ID) analysis
  • Expertise in process simulation software for performance evaluation and optimization studies
  • Enhanced understanding of bottleneck identification and elimination principles
  • Skills in economic evaluation of revamping and debottlenecking projects
  • Proficiency in project management and commissioning of optimization initiatives

Master process plant optimisation excellence and drive operational transformation success. Enroll today to become an expert in Process Plant Optimisation, Revamping, and Debottlenecking!

Training Methodology

This collaborative Process Plant Optimisation, Revamping and Debottlenecking training program will comprise the following training methods:

The training framework includes:

  • Expert-led lectures delivered by experienced process optimization professionals covering theoretical foundations
  • Interactive video demonstrations and comprehensive seminars and presentations
  • Quizzes and evaluations that assess knowledge retention and practical application
  • Group discussions and assignments that reinforce optimization concepts and revamping strategies
  • Case studies and functional exercises that simulate real-world plant optimization and debottlenecking scenarios

This immersive approach fosters practical skill development and real-world application of process plant optimization principles through comprehensive coverage of revamping techniques, debottlenecking methodologies, and advanced project management strategies.

Like all our other training programs, this course also follows the ‘Do-Review-Learn-Apply’ model, creating a structured learning journey that transforms process plant optimization knowledge into operational excellence through systematic practice and implementation.

Who Should Attend?

This Process Plant Optimisation, Revamping and Debottlenecking training program would be suitable for:

  • Process plant technical professionals
  • Engineers, technicians, and operators
  • Supervisors and maintenance personnel
  • Project engineers
  • Engineering and technical personnel responsible for improving process and petrochemical plant, and refinery profitability
  • Those who are involved in planning, managing, and ensuring energy efficiency
  • Operations managers and plant supervisors
  • Chemical engineers and process engineers
  • Plant managers and technical professionals
  • Maintenance engineers and reliability specialists

Organisational Benefits

Companies who nominate their employees to participate in this Process Plant Optimisation, Revamping, and Debottlenecking training program can benefit in the following ways:

  • Benefit from training your employees on the definition and importance of mechanical information
  • Learn about different roles played within the Process Plant Optimisation, Revamping, and Debottlenecking guidelines
  • Learn and apply standards in equipment identification, equipment design features analysis, equipment performance calculations
  • Understand safe operation and monitoring of equipment and its maintenance
  • Delegates will be able to apply the gained knowledge through this course and practice skills and that will impact their respective companies
  • Maintain better organisational safety records
  • Significantly increased plant capacity and productivity through real-world revamp and debottlenecking projects that result in 20-33% increases in plant capacity
  • Enhanced lower operating costs and higher efficiency through implementation of process optimization that reduces process variability and waste
  • Better improved compliance, safety, and risk management through modernization and smart controls that deliver better HSE outcomes
  • Strengthened competitive positioning through enhanced throughput, operational resilience, and improved regulatory compliance

Studies show that organizations implementing comprehensive process plant optimization training achieve significantly increased plant capacity and productivity as real-world revamp and debottlenecking projects have resulted in 20-33% increases in plant capacity and elevated overall equipment effectiveness often implemented in record time under operational constraints, enhanced lower operating costs and higher efficiency through implementation of process optimization in polypropylene and chemical plants that has reduced process variability and waste while improving conversion efficiencies and decreasing operating expenses, and better improved compliance, safety, and risk management as modernization and smart controls with systematic equipment reviews not only improve plant performance but also deliver better HSE outcomes.

Empower your organization with process plant optimization expertise. Enroll your team today and see the transformation in plant capacity and operational efficiency!

Personal Benefits

Individuals who choose to participate in this Process Plant Optimisation, Revamping and Debottlenecking training program can benefit from the course in the following ways:

  • Improve your career opportunities and increase your ability to work across relevant global industries
  • Secure a relevant job anywhere in the world with the right knowledge in Process Plant Optimisation, Revamping, and Debottlenecking
  • Get promoted in your current job in the Process Plant Optimisation, Revamping, and Debottlenecking field
  • Acquire the professional skills and knowledge required to accomplish your tasks with optimal competence and accuracy
  • Master the knowledge and techniques to see the future of an effective Process Plant Optimisation, Revamping, and Debottlenecking process
  • Discover how to work well with your machines and the risks of not being able to operate them accurately
  • Contribute to your organisation by being knowledgeable enough to determine the need for a program/process at your workplace or understand an existing program better
  • Get an opportunity to work through hands-on exercises in detail to gain the skills needed to facilitate a Process Plant Optimisation, Revamping, and Debottlenecking study
  • Gain the skills to plan, manage, facilitate, and scribe for a Process Plant Optimisation, Revamping, and Debottlenecking project
  • Advanced expertise in process plant optimization and revamping strategies
  • Enhanced career prospects and marketability in process industries and engineering sectors
  • Improved ability to lead optimization projects and manage complex revamping initiatives
  • Greater competency in economic evaluation and project feasibility analysis
  • Increased capability to mentor and develop other process professionals
  • Enhanced understanding of emerging optimization technologies and industry best practices

Course Outline

Module 1: Overview of Process Plant Operation

  • Overview of Optimisation Technologies for Process Plants
  • Elements of Process Plant Optimisation Procedure
  • Constraints in Optimisation:
    • Production
    • Operation
    • Economy
    • Environment
  • Optimisation Approaches
  • Mathematical Models and Physical Models
  • Correlation between Process Optimisation and Process Control
  • Workshop: Examples and Solutions
  • Debottlenecking as process of improving efficiency by finding rate-limiting steps and correcting them
  • Throughput increases, yield alterations, and specification modifications as typical debottlenecking goals
  • Big-picture overview required for generating appropriate options and optimizing implementation
  • Upstream and downstream equipment analysis including transportation systems and utilities

Module 2: Process Plant Optimisation Basics

  • Process Plant Optimisation
  • Process Control Basics
  • Elements of Process Plant Optimisation
  • Components to Optimise Industrial Processes
  • Mathematical Model of Process
  • Process Variables
  • Simulation Technology to Plant and Control
  • The Basics of Heat Integration
  • Bottleneck detection, evaluation, and removal through iterative improvement approach
  • Use of process simulation tools for optimization and revamp studies
  • Mathematical modeling and physical modeling for process optimization
  • Process variables control and simulation technology integration

Module 3: Energy Management for Businesses & The Environment

  • Industrial Energy Management
  • Energy Efficiency for Businesses and the Environment
  • Energy Use and in Process Industry
  • Energy Management Standard: Details
  • Energy Management Standard: Features
  • Obstacles for Energy Management Programs
  • Heat integration as critical issue in debottlenecking for crude and hydroprocessing units
  • Heat transfer debottlenecking manifesting as need for additional heat input or cooling utility
  • Energy conservation opportunities through systematic energy audit procedures
  • Environmental constraints consideration in process optimization planning

Module 4: Energy Conservation

  • World Standards and Benchmarking Guidelines
  • Useful Practices in Process Plant Energy Management
  • Energy Conservation Check List for Industrial Plants
  • Energy Conservation Opportunities
  • Energy Audit
  • Energy Audit Types
  • Benchmarking Energy Intensity and Usage
  • New Energy Efficient Technologies
  • Technical Evaluation of Potential Opportunities
  • Economic Evaluation of Renewable Energy
  • World standards and benchmarking guidelines for energy efficiency improvement
  • Technical evaluation of potential opportunities using systematic assessment methods
  • Economic evaluation frameworks for renewable energy and energy efficiency projects
  • Benchmarking energy intensity against industry best practices and standards

Module 5: Plant Optimisation Activities

  • Implications of Plant Optimisation Activities
  • Technological Modifications to the Plant
  • Technology Licenses
  • Impact on Human Resources
  • Good Safety ‐ Good Business
  • Safety Costs: Costs of Injuries
  • Technological modifications to plant for enhanced throughput and reliability
  • Impact on human resources through process changes and technology upgrades
  • Safety considerations and cost-benefit analysis of injury prevention
  • Technology licensing implications for plant optimization and revamping

Module 6: Revamping and Debottlenecking Strategies

  • Revamping Strategies
  • Production Capacity Enhancement
  • Maintenance, Energy, Utilities, Environmental and Safety Parameters
  • Economic, Planning, and Project Management Issues
  • Case Studies:
    • Optimising a Polypropylene Plant
    • Debottlenecking Ethylene & Propylene Plant
    • Revamping an Oil Refinery Plant
  • Debottlenecking pathway as sequence of steps required to fix bottlenecks with KPI changes
  • Iterative debottlenecking approach finding first bottleneck, correcting it, then moving to second
  • Design-of-experiments approach for highly complex facilities with multiple simultaneous changes
  • Economic evaluation of revamping and debottlenecking projects with cost-benefit analysis

Real World Examples

The impact of Process Plant Optimisation, Revamping, and Debottlenecking training is evident in leading implementations:

  • NGL/Gas Plant (Anonymous, Middle East)
    Implementation: A successful debottlenecking and revamp project in an NGL/gas processing plant increased plant capacity by 33% through systematic troubleshooting, operational data analysis, and updated equipment configurations, raising daily throughput from 450 MMscfd to 600 MMscfd while improving the plant’s onstream factor from 90-94% to 96-97%.
    Results: The implementation achieved 33% increase in plant capacity through systematic debottlenecking and revamp strategies, improved onstream factor from 90-94% to 96-97% through systematic troubleshooting and operational data analysis, and delivered substantial financial and reliability benefits through well-planned staged execution with cost-benefit analysis and targeted modifications, demonstrating how comprehensive process plant optimization training enables exceptional gas processing efficiency and capacity enhancement.
  • Gibson Energy, Moose Jaw Refinery (Canada)
    Implementation: Gibson Energy completed comprehensive expansion and debottlenecking at its Moose Jaw refinery to increase throughput by about 30% without increasing greenhouse gas emissions, implementing systematic revamp strategies that yielded 20-25% reduction in unit emissions per barrel while significantly enhancing product value and operational flexibility.
    Results: The implementation achieved 30% increase in throughput without increasing greenhouse gas emissions through comprehensive expansion and debottlenecking strategies, delivered 20-25% reduction in unit emissions per barrel through systematic revamp and environmental optimization, and significantly enhanced product value and operational flexibility through comprehensive refinery upgrade leveraging investment incentive programs, showcasing how systematic process plant optimization training enables superior refinery performance and environmental sustainability.
  • Polypropylene Plant (Pilot Study, Asia)
    Implementation: A polypropylene production facility optimized process parameters in a fluidized bed catalytic reactor through comprehensive statistical modeling (RSM/ANOVA) to achieve optimum process conditions at 75°C, 25 bar, and 2% hydrogen while implementing systematic process optimization and performance validation methodologies.
    Results: The implementation achieved polymer conversion efficiency of 5.82% per pass through systematic statistical modeling and process parameter optimization, demonstrated excellent agreement between predicted and actual results through comprehensive experimental validation and process control, and maximized process output while minimizing waste through systematic modeling approach that provided robust performance across varying operational conditions, demonstrating how comprehensive process plant optimization training enables exceptional chemical production efficiency and process control.

Be inspired by industry-leading process plant optimization achievements. Register now to build the skills your organization needs for plant optimization excellence!

Course Accreditations

KHDA

Frequently Asked Questions?

4 simple ways to register with Zoe Talent Solutions:

  • Website: Log on to our website www.zoetalentsolutions.com. Select the course you want from the list of categories or filter through the calendar options. Click the “Register” button in the filtered results or the “Quick Enquiry” option on the course page. Complete the form and click submit.
  • Telephone: Call us on +971 4 558 8245 to register.
  • E-mail Us: Send your details to info@zoetalentsolutions.com
  • Mobile/Whatsapp: You can call or send us a message on Whatsapp on +44 20 4586 0412 or +971 4 558 8245 to enquire or register.
    Believe us we are quick to respond too.

Yes, we do deliver courses in 17 different languages which includes English, Arabic, French, Portuguese, Spanish are to name a few.

Our course consultants on most subjects can cover about 3 to maximum 4 modules in a classroom training format. In a live online training format, we can only cover 2 to maximum 3 modules in a day.

Our live online courses start around 9:30am and finish by 12:30pm. There are 3 contact hours per day. The course coordinator will confirm the Timezone during course confirmation.

Our public courses generally start around 9:30am and end by 4:30pm. There are 7 contact hours per day. 

A ‘Remotely Proctored’ exam will be facilitated after your course.
The remote web proctor solution allows you to take your exams online, using a webcam, microphone and a stable internet connection. You can schedule your exam in advance, at a date and time of your choice. At the agreed time you will connect with a proctor who will invigilate your exam live.

A valid ZTS ‘Certificate of Training’ will be awarded to each participant upon successfully completing the course.

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