Advanced Chemical Process Design and Plant Integration Training Course

Course Introduction

Chemical process industries are under continuous pressure to improve production efficiency, product quality, energy utilization, operational flexibility, environmental performance, and profitability while meeting increasingly stringent safety and regulatory requirements. Modern process facilities require engineers who possess advanced expertise in chemical process design, process integration, simulation, optimization, and plant-wide engineering. The Advanced Chemical Process Design and Plant Integration Training Course provides participants with comprehensive knowledge of advanced process engineering principles and practical methodologies for designing, integrating, optimizing, and managing highly efficient chemical processing facilities across diverse industrial sectors.

Successful chemical process design extends beyond individual unit operations and requires a holistic understanding of process chemistry, thermodynamics, reaction engineering, heat and mass transfer, equipment selection, process control, utilities integration, energy recovery, safety engineering, and operational reliability. This course provides an integrated approach to conceptual process development, process simulation, equipment design, process synthesis, utility optimization, heat integration, plant layout, debottlenecking, and operational excellence. Participants will learn how to develop technically sound and economically viable process designs that maximize productivity while minimizing energy consumption, environmental impacts, and lifecycle costs.

Participants will strengthen their engineering capabilities through practical design workshops, simulation exercises, process optimization studies, industrial case analyses, and engineering calculations covering complete process systems. The course emphasizes process flow development, process equipment integration, hydraulic analysis, utility system design, process control philosophy, reliability engineering, plant expansion strategies, operational troubleshooting, and performance optimization. Practical examples from petrochemical, refinery, fertilizer, pharmaceutical, specialty chemical, food processing, and industrial manufacturing sectors ensure broad industrial applicability.

Emerging digital technologies are rapidly transforming chemical process engineering and plant integration practices. The course examines the application of artificial intelligence, machine learning, digital twins, Industrial Internet of Things (IIoT), advanced process control (APC), predictive analytics, cloud-based engineering platforms, computational fluid dynamics (CFD), process data analytics, virtual commissioning, and intelligent optimization systems. Participants will understand how digital transformation enhances process simulation accuracy, predictive maintenance, production optimization, energy management, and real-time operational decision-making across integrated processing facilities.

Strong emphasis is placed on process safety, sustainability, decarbonization, energy efficiency, circular economy principles, environmental compliance, ESG integration, lifecycle engineering, asset integrity, operational resilience, and continuous improvement. Participants will explore strategies for reducing greenhouse gas emissions, maximizing resource utilization, integrating renewable utilities, minimizing waste generation, improving heat recovery, and enhancing long-term plant competitiveness while maintaining world-class safety and environmental performance.

Upon successful completion of this training course, participants will possess advanced competencies in chemical process design, plant integration, process simulation, energy integration, process optimization, equipment selection, operational troubleshooting, and engineering decision-making. They will be capable of designing integrated process systems, improving plant performance, optimizing utility consumption, supporting sustainable industrial development, reducing operational risks, and delivering technically robust engineering solutions that create measurable operational and economic value.

Duration

10 days

Who Should Attend

• Chemical Engineers

• Process Engineers

• Plant Design Engineers

• Production Engineers

• Project Engineers

• Plant Managers

• Operations Engineers

• Process Control Engineers

• Mechanical Engineers working in process industries

• Energy Engineers

• EPC Engineering Professionals

• Commissioning Engineers

• Maintenance Engineers

• Process Simulation Specialists

• Utility Engineers

• Technical Managers

• Manufacturing Engineers

• Petrochemical Engineers

• Refinery Engineers

• Professionals involved in chemical plant design and optimization

Course Objectives

• Develop comprehensive knowledge of advanced chemical process design methodologies, plant integration strategies, and engineering principles supporting efficient industrial production systems.

• Understand process synthesis, conceptual process development, simulation techniques, equipment selection, and integrated engineering approaches for complex chemical processing facilities.

• Gain practical expertise in process flow diagram development, process simulation, utility integration, energy optimization, hydraulic analysis, and process performance improvement methodologies.

• Learn advanced techniques for heat integration, pinch analysis, process optimization, debottlenecking, plant expansion planning, and operational efficiency enhancement using engineering best practices.

• Build competency in reactor design, separation processes, process control integration, utility system engineering, and plant-wide optimization for improved operational reliability.

• Master engineering approaches for equipment sizing, process safety integration, process operability analysis, lifecycle cost optimization, and sustainable plant design methodologies.

• Strengthen capabilities in troubleshooting complex processing systems, identifying performance bottlenecks, implementing optimization projects, and improving plant productivity through systematic engineering analysis.

• Develop practical understanding of artificial intelligence, digital twins, Industrial Internet of Things, predictive analytics, advanced process control, and digital engineering technologies supporting smart manufacturing.

• Apply advanced process simulation software concepts, engineering calculations, economic evaluations, environmental assessments, and risk analysis for integrated plant design decision-making.

• Improve engineering decision-making using process modeling, operational data analysis, energy benchmarking, equipment performance evaluation, and continuous process improvement methodologies.

• Explore emerging topics including carbon capture integration, hydrogen-ready process design, digital manufacturing, industrial decarbonization, smart utilities, and sustainable process engineering innovations.

• Equip participants with practical skills to design, integrate, optimize, troubleshoot, and continuously improve complex chemical process facilities while achieving operational excellence, safety, and sustainability objectives.

Comprehensive Course Outline

Module 1: Fundamentals of Advanced Chemical Process Design

• Principles of integrated chemical process design and engineering optimization methodologies

• Process development lifecycle from concept selection through detailed engineering design

• Design criteria supporting safe, reliable, efficient, and sustainable processing facilities

• International engineering standards governing chemical process design practices

Module 2: Process Synthesis and Concept Development

• Process synthesis methodologies for developing optimized chemical production systems

• Selection of alternative processing routes using engineering evaluation techniques

• Material and energy balance development for integrated process configurations

• Economic screening supporting conceptual process design decision-making activities

Module 3: Thermodynamics and Reaction Engineering

• Advanced thermodynamic models supporting chemical process simulation and optimization

• Reactor selection methodologies based on kinetics and process performance objectives

• Chemical equilibrium analysis supporting efficient process design decisions

• Reaction engineering optimization improving conversion, selectivity, and product quality

Module 4: Process Simulation and Modeling

• Process simulation techniques using integrated chemical engineering software platforms

• Model validation methods ensuring reliable engineering prediction and optimization

• Dynamic simulation supporting operational flexibility and startup planning activities

• Sensitivity analysis improving engineering confidence in design alternatives

Module 5: Equipment Design and Selection

• Engineering design methodologies for pressure vessels, reactors, and separators

• Heat exchanger selection supporting efficient thermal process integration strategies

• Pump, compressor, and piping design supporting reliable plant operations

• Equipment specification development aligned with operational and maintenance requirements

Module 6: Heat Integration and Energy Optimization

• Pinch analysis methodologies improving plant-wide energy utilization and efficiency

• Heat recovery network design reducing utility consumption and operating costs

• Steam system optimization supporting integrated utility management performance

• Waste heat recovery technologies enhancing sustainable industrial operations

Module 7: Separation Process Integration

• Distillation optimization improving product purity and energy efficiency simultaneously

• Membrane technologies supporting advanced process separation and resource recovery

• Absorption, extraction, and adsorption system integration into complex processing facilities

• Hybrid separation technologies supporting innovative process engineering solutions

Module 8: Utility Systems and Plant Integration

• Integrated utility systems supporting reliable chemical plant operational performance

• Cooling water, compressed air, and refrigeration system optimization methodologies

• Plant-wide utility balancing improving operational efficiency and sustainability outcomes

• Renewable energy integration supporting decarbonized industrial processing facilities

Module 9: Process Control and Automation

• Advanced process control strategies improving operational stability and productivity

• Distributed control systems integration supporting intelligent process management platforms

• Instrumentation design supporting reliable measurement and process optimization activities

• Automated process monitoring enhancing operational performance and product consistency

Module 10: Process Safety and Risk Engineering

• Process hazard analysis integrated into chemical process design methodologies

• Inherently safer design principles minimizing operational hazards and environmental risks

• Safety instrumented systems supporting plant protection and operational integrity

• Risk-based engineering supporting reliable and compliant process facility operations

Module 11: Plant Layout and Facility Integration

• Plant layout optimization improving operational efficiency and maintenance accessibility

• Facility integration supporting safe material movement and utility distribution systems

• Modular plant design supporting flexible expansion and operational scalability

• Three-dimensional plant modeling improving engineering coordination and constructability

Module 12: Digital Process Engineering Technologies

• Artificial intelligence applications supporting predictive process optimization and control

• Digital twins enhancing plant simulation, monitoring, and engineering performance analysis

• Industrial Internet of Things supporting connected manufacturing and operational intelligence

• Cloud-based engineering platforms improving collaboration and design productivity

Module 13: Sustainability and Environmental Integration

• Sustainable chemical process engineering reducing emissions and resource consumption

• Carbon management strategies supporting industrial decarbonization and ESG objectives

• Circular economy integration improving waste minimization and resource recovery initiatives

• Environmental compliance supporting responsible chemical manufacturing operations

Module 14: Plant Optimization and Debottlenecking

• Debottlenecking methodologies increasing production capacity with minimal capital investment

• Operational performance analysis identifying process improvement opportunities systematically

• Reliability engineering supporting consistent process availability and operational excellence

• Continuous improvement frameworks enhancing long-term plant competitiveness

Module 15: Emerging Technologies and Industry Innovations

• Hydrogen integration opportunities supporting future-ready chemical manufacturing facilities

• Smart manufacturing technologies enabling autonomous process optimization capabilities

• Predictive maintenance systems improving equipment reliability and lifecycle performance

• Advanced analytics supporting data-driven engineering and operational decision-making

Module 16: Practical Design Workshop and Industry Case Studies

• Comprehensive case studies demonstrating successful integrated chemical plant designs

• Practical engineering workshops developing optimized process integration solutions collaboratively

• Simulation exercises evaluating operational improvements and plant-wide performance enhancements

• Best practices supporting world-class chemical process design and plant integration excellence

Training Approach

This course will be delivered by our skilled trainers who have vast knowledge and experience as expert professionals in the fields. The course is taught in English and through a mix of theory, practical activities, group discussion and case studies. Course manuals and additional training materials will be provided to the participants upon completion of the training.

Tailor-Made Course

This course can also be tailor-made to meet organization requirement. For further inquiries, please contact us on: Email: training@upskilldevelopment.com Tel: +254 721 331 808

Training Venue 

The training will be held at our Upskill Training Centre. We also offer training for a group (at a discount of 10% to 50%) at requested location all over the world. The Onsite course fee covers the course tuition, training materials, two break refreshments, buffet lunch, airport transfers, Upskill gift package, and guided tour.

Visa application, travel expenses, dinners, accommodation, insurance, and other personal expenses are catered by the participant

Certification

Participants will be issued with Upskill certificate upon completion of this course.

Airport Pickup and Accommodation

Airport pickup and accommodation is arranged upon request. For booking contact our Training Coordinator through Email: training@upskilldevelopment.com, +254 721 331 808

Terms of Payment:

Unless otherwise agreed between the two parties’ payment of the course fee should be done 3 working days before commencement of the training so as to enable us to prepare better.