Course Introduction
Distillation, absorption, and extraction are among the most critical separation processes used throughout the chemical, petrochemical, oil and gas, pharmaceutical, food processing, and environmental industries. These operations play a vital role in product purification, solvent recovery, pollution control, feedstock preparation, and process optimization. As industries continue to demand higher product quality, lower energy consumption, improved operational reliability, and reduced environmental impacts, engineers require advanced knowledge of separation process design and optimization. This Distillation, Absorption and Extraction Process Design Training Course provides participants with comprehensive engineering principles, practical design methodologies, and industrial best practices for modern separation technologies.
Successful separation process design requires an integrated understanding of thermodynamics, vapor-liquid equilibrium, mass transfer, fluid mechanics, transport phenomena, equipment hydraulics, energy integration, process control, and economic evaluation. This course provides in-depth coverage of tray and packed columns, distillation system design, absorber performance, solvent extraction systems, stripping operations, membrane-assisted separations, process simulation, and equipment sizing. Participants will develop the skills necessary to evaluate alternative process configurations, improve plant efficiency, reduce utility consumption, and optimize product recovery while maintaining high safety and environmental standards.
Participants will strengthen their technical capabilities through engineering calculations, process simulation exercises, industrial case studies, design workshops, troubleshooting sessions, and equipment performance analysis. Practical applications focus on refinery fractionation, natural gas processing, solvent recovery systems, chemical manufacturing, pharmaceutical purification, food processing, environmental treatment systems, and specialty chemical production. The course emphasizes practical engineering solutions that can immediately improve plant performance, operational reliability, production flexibility, and long-term asset utilization.
Digital transformation is reshaping separation process engineering through artificial intelligence, machine learning, computational fluid dynamics, digital twins, Industrial Internet of Things (IIoT), advanced process control, predictive analytics, cloud-based engineering platforms, and intelligent monitoring systems. Participants will examine how emerging digital technologies improve column performance prediction, optimize energy consumption, enhance process control, reduce fouling, predict maintenance requirements, and enable real-time operational decision-making that supports Industry 4.0 manufacturing initiatives.
The course also addresses sustainability, decarbonization, energy efficiency, waste minimization, circular economy principles, carbon capture integration, ESG performance, environmental compliance, and lifecycle engineering. Participants will learn engineering approaches for reducing greenhouse gas emissions, maximizing heat recovery, optimizing solvent utilization, improving process intensification, integrating renewable energy opportunities, and minimizing environmental impacts while maintaining high levels of productivity, process safety, and product quality.
Upon successful completion of this training course, participants will possess advanced competencies in designing, analyzing, optimizing, troubleshooting, and managing distillation, absorption, and extraction systems across diverse industrial sectors. They will be equipped to improve separation efficiency, optimize equipment performance, reduce operating costs, support capital investment decisions, implement advanced digital engineering technologies, and deliver measurable operational, environmental, and economic improvements within modern process industries.
Duration
10 days
Who Should Attend
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Chemical Engineers
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Process Engineers
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Plant Design Engineers
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Production Engineers
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Process Simulation Engineers
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Refinery Engineers
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Petrochemical Engineers
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Oil and Gas Engineers
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Operations Engineers
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Mechanical Engineers working in process industries
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Energy Engineers
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Process Control Engineers
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Project Engineers
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Commissioning Engineers
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Maintenance Engineers
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Process Improvement Specialists
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Technical Managers
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Research and Development Engineers
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Pharmaceutical Process Engineers
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Professionals responsible for industrial separation systems
Course Objectives
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Develop comprehensive knowledge of distillation, absorption, and extraction principles supporting efficient industrial separation process design and operation.
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Understand vapor-liquid equilibrium, liquid-liquid equilibrium, mass transfer mechanisms, and thermodynamic models essential for accurate process design and optimization.
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Gain practical expertise in designing tray columns, packed columns, absorbers, strippers, extractors, and integrated separation systems using engineering best practices.
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Learn advanced methodologies for equipment sizing, hydraulic calculations, process simulation, energy integration, and operational optimization across industrial separation facilities.
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Build competency in troubleshooting separation equipment, identifying performance limitations, minimizing fouling, and improving product quality through systematic engineering analysis.
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Master engineering techniques for optimizing reflux ratios, solvent selection, stage efficiency, column internals, operating conditions, and energy consumption while maximizing productivity.
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Strengthen capabilities in evaluating process economics, sustainability metrics, lifecycle performance, emissions reduction opportunities, and utility optimization for industrial separation systems.
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Develop practical understanding of artificial intelligence, digital twins, computational fluid dynamics, Industrial Internet of Things, predictive analytics, and advanced process monitoring technologies.
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Apply advanced engineering approaches for debottlenecking separation systems, improving operational flexibility, enhancing equipment reliability, and increasing overall plant profitability.
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Improve engineering decision-making using simulation, sensitivity analysis, optimization studies, process diagnostics, risk evaluation, and performance benchmarking methodologies.
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Explore emerging topics including hybrid separation technologies, membrane integration, carbon capture systems, process intensification, and intelligent plant automation innovations.
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Equip participants with practical skills to design, optimize, troubleshoot, monitor, and continuously improve industrial separation systems while achieving operational excellence and environmental sustainability.
Comprehensive Course Outline
Module 1: Fundamentals of Separation Processes
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Principles governing industrial distillation, absorption, and extraction operations
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Thermodynamic foundations supporting efficient separation process engineering
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Material and energy balance development for integrated separation systems
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Industrial applications across chemical, refining, and petrochemical sectors
Module 2: Vapor-Liquid Equilibrium and Thermodynamics
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Vapor-liquid equilibrium calculations supporting accurate column design methodologies
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Equation of state selection for industrial separation process simulations
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Activity coefficient models improving thermodynamic prediction accuracy
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Phase behavior analysis for multicomponent industrial process streams
Module 3: Distillation Process Design
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Distillation column configuration selection for industrial process optimization
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McCabe-Thiele and rigorous design methodologies for column development
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Reflux ratio optimization improving energy efficiency and product purity
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Multicomponent distillation design using advanced engineering techniques
Module 4: Distillation Equipment and Column Internals
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Tray design, hydraulic performance, and operational efficiency optimization
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Packed column selection for high-performance industrial separation applications
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Flooding, weeping, entrainment, and pressure drop engineering analysis
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Mechanical considerations for reliable distillation equipment performance
Module 5: Absorption Process Engineering
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Gas absorption fundamentals supporting industrial pollution control systems
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Packed absorber design improving gas treatment process efficiency
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Solvent selection methodologies for optimized absorption system performance
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Industrial absorber troubleshooting and operational improvement techniques
Module 6: Stripping and Desorption Systems
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Steam stripping technologies for industrial separation process applications
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Air stripping system design for environmental engineering operations
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Mass transfer optimization improving stripping column operational performance
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Utility optimization reducing energy consumption in stripping processes
Module 7: Liquid-Liquid Extraction Design
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Solvent extraction principles supporting high-efficiency product recovery systems
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Extraction equipment selection for diverse industrial processing applications
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Phase equilibrium analysis improving extraction process optimization strategies
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Mixer-settler and extraction column engineering design methodologies
Module 8: Heat Integration and Energy Optimization
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Heat integration techniques reducing utility consumption across separation systems
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Pinch analysis supporting energy-efficient process design improvements
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Waste heat recovery opportunities within distillation and absorption operations
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Sustainable thermal optimization supporting decarbonization engineering initiatives
Module 9: Process Simulation and Modelling
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Steady-state simulation supporting optimized separation process engineering design
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Dynamic simulation improving startup, shutdown, and transient operations
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Model validation and calibration techniques for reliable engineering analysis
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Sensitivity analysis supporting engineering optimization and operational decisions
Module 10: Process Control and Automation
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Advanced process control improving separation system operational stability
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Instrumentation selection supporting accurate column performance monitoring
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Intelligent automation improving product consistency and operational efficiency
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Digital control strategies integrating advanced engineering technologies
Module 11: Equipment Performance and Troubleshooting
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Performance diagnostics identifying operational bottlenecks in separation equipment
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Fouling prediction and mitigation improving long-term equipment reliability
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Root cause analysis supporting effective process troubleshooting methodologies
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Predictive maintenance strategies reducing equipment downtime and repair costs
Module 12: Sustainability and Environmental Engineering
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Solvent recovery optimization reducing environmental impacts and operating expenses
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Carbon reduction strategies through efficient separation process engineering
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Circular economy integration supporting sustainable industrial manufacturing systems
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Environmental compliance requirements affecting separation process operations
Module 13: Emerging Separation Technologies
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Membrane-assisted separation technologies improving process efficiency significantly
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Hybrid separation systems integrating multiple engineering methodologies successfully
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Process intensification techniques reducing equipment size and energy consumption
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Carbon capture separation technologies supporting industrial decarbonization initiatives
Module 14: Digital Engineering and Smart Manufacturing
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Artificial intelligence optimizing industrial separation system performance continuously
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Digital twins supporting virtual process optimization and operational excellence
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Industrial Internet of Things improving equipment monitoring and diagnostics
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Predictive analytics enabling proactive engineering decision-making capabilities
Module 15: Industrial Applications and Case Studies
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Refinery fractionation optimization using advanced separation engineering techniques
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Natural gas processing applications improving hydrocarbon recovery efficiency
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Pharmaceutical purification systems requiring precision separation process design
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Chemical manufacturing case studies demonstrating operational excellence practices
Module 16: Practical Design Workshop and Engineering Projects
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Comprehensive industrial design exercises developing complete separation systems
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Process simulation workshops validating engineering calculations and assumptions
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Group projects optimizing integrated industrial separation process performance
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Best practices supporting world-class separation engineering and operational 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.
