Heat Exchangers, Distillation & Separation Processes Training Course

Course Overview

Learning Objectives

• Analyze the operating principles of heat exchangers, distillation systems, and separation processes in relation to safety, quality, reliability, energy use, and throughput during the course.
• Assess process data, including flow, pressure, temperature, composition, heat duty, and product quality, to identify performance deviations in selected systems.
• Develop operating profiles that define critical process variables, normal operating ranges, alarms, constraints, and performance expectations.
• Evaluate heat transfer performance, fouling behaviour, pressure drop, thermal efficiency, and maintenance requirements for common heat exchanger applications.
• Apply mass and energy balance principles to assess separation efficiency, distillation performance, utility consumption, and process losses.
• Design practical monitoring approaches for heat exchangers, distillation columns, separators, condensers, reboilers, and associated process equipment.
• Improve process stability by identifying actions related to operating set points, feed conditions, reflux, reboiler duty, cooling, pressure control, and equipment loading.
• Strengthen troubleshooting practices by applying structured methods to identify technical, operational, control-related, and maintenance-related causes of underperformance.
• Evaluate separation equipment performance based on phase behaviour, residence time, flow conditions, interface control, product specifications, and operational risk.
• Implement practical measures to reduce fouling, corrosion, leakage, contamination, entrainment, flooding, foaming, and other common process problems.
• Assess the relationship between process equipment performance, maintenance planning, inspection, reliability, energy management, and production targets.
• Develop a time-bound action plan to improve heat exchanger, distillation, and separation process performance after the course.

Who Should Attend

Learning Outcomes

• Explain the role of heat exchangers, distillation columns, and separation equipment in process performance, quality, energy efficiency, and operational reliability.
• Interpret process flow, pressure, temperature, composition, utility, and quality data to identify operating deviations and performance trends.
• Apply basic heat transfer concepts to assess thermal duty, temperature approach, fouling, pressure drop, and exchanger effectiveness.
• Identify the operating principles and major components of shell-and-tube, plate, air-cooled, and other common heat exchanger systems.
• Assess distillation performance using concepts of vapour-liquid equilibrium, reflux, reboiling, condensation, pressure, temperature profiles, and product specifications.
• Recognize common distillation problems, including flooding, weeping, entrainment, foaming, pressure instability, off-specification products, and heat imbalance.
• Evaluate liquid-liquid, gas-liquid, solid-liquid, and mechanical separation processes according to process duty and operating conditions.
• Identify common process issues, including fouling, scaling, corrosion, leakage, contamination, poor phase separation, and equipment vibration.
• Develop practical troubleshooting plans that combine process data, field observations, maintenance history, inspection findings, and control-system information.
• Improve operating practices involving feed conditions, flow rates, set points, pressure control, reflux ratio, reboiler duty, cooling duty, and equipment sequencing.
• Integrate process performance improvements with preventive maintenance, inspection, cleaning, reliability, safety, and energy-management activities.
• Produce an initial improvement roadmap for heat exchangers, distillation systems, and separation processes within the participant’s workplace.

Course Outline