Course Overview
This 5-day intensive program equips mechanical engineers, process designers, and maintenance professionals with expert-level knowledge of heat exchanger design, operation, and performance optimization. Participants will master thermal design methodologies, fouling mitigation strategies, and advanced troubleshooting techniques for shell-and-tube, plate, and air-cooled heat exchangers.
Course Objectives
Upon completion, participants will be able to:
- Design heat exchangers using TEMA, ASME, and API standards
- Select optimal configurations (shell-and-tube, plate, compact)
- Calculate thermal performance (LMTD, NTU methods)
- Analyze and mitigate fouling mechanisms
- Troubleshoot operational issues (vibration, leakage, underperformance)
- Conduct performance tests and efficiency evaluations
- Implement cleaning and maintenance strategies
- Apply digital twin technologies for predictive maintenance
Who Should Attend
This course is essential for:
- Process Engineers
- Mechanical Design Engineers
- Maintenance Supervisors
- Plant Operations Staff
- HVAC System Designers
- Energy Efficiency Consultants
- Equipment Inspection Specialists
Course Modules
Module 1: Heat Exchanger Fundamentals
- Heat transfer mechanisms (conduction, convection, radiation)
- Types and applications (STHE, PHE, ACHE, spiral)
- TEMA classifications and nomenclature
- Material selection considerations
Module 2: Thermal Design Principles
- Log Mean Temperature Difference (LMTD) method
- Effectiveness-NTU method
- Pressure drop calculations
- Baffle design and flow optimization
Module 3: Mechanical Design Standards
- ASME Section VIII requirements
- Tube-to-tubesheet joint design
- Thermal stress analysis
- Vibration prevention (TEMA guidelines)
Module 4: Fouling & Performance Degradation
- Fouling mechanisms and mitigation
- Fouling factor selection
- Online and offline cleaning methods
- Chemical treatment programs
Module 5: Operation & Troubleshooting
- Startup and shutdown procedures
- Common failure modes (leakage, vibration, corrosion)
- Performance monitoring techniques
- Retrofitting and upgrading options
Module 6: Performance Testing & Evaluation
- Heat balance calculations
- Thermal performance testing (ASME PTC 12)
- Efficiency benchmarking
- Data validation techniques
Module 7: Advanced Technologies
- Enhanced surface geometries
- Additive manufacturing applications
- IoT-enabled condition monitoring
- AI for fouling prediction