Why Attend
Heat exchangers are important and expensive items of equipment that are used in a wide variety of industries. A better understanding of the basic principles of heat transfer and fluid flow and their application to the design and operation of shell and tube heat exchangers, as well as plate heat exchangers, air-cooled exchangers and other specialty heat exchangers that you gain from this course, will enable you to improve their effectiveness and extend their life.
Instructor-led training that uses interactive learning methods, including class discussion, small group activities, and role-playing
To highlight the pivotal function and significance of heat exchangers in cost-effective plant operations; To provide a clear understanding of the fundamentals of heat transfer and hydraulics and fluid flow and their application in the thermal design of heat exchangers.; To provide methodologies for the mechanical design of heat exchangers in accordance with industry codes, standards and best practices, specifically ASME BPVC Section VIII, TEMA, and API 660, 661, and 662.; To make delegates aware of cost-effective technologies and best practices for improving performance of heat exchangers
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Day 1: Types and Application of Heat Exchangers
Overview and basic fundamentals
Significance of heat exchange in the petroleum, petrochemical, and process industries
Heat Transfer Fundamentals and Heat Transfer Coefficients
Heat Exchanger types and application
Shell and Tube heat exchangers
Compact heat exchangers
Plate heat exchangers
Printed circuit heat exchangers
Heat pipes
Air-cooled heat exchangers
Regenerative heat exchangers
Geometry of Shell & Tube Heat Exchangers (STHE) and Double Pipes - TEMA nomenclature, front end head types, shell types, rear-end types, double pipe units, selection guidelines
Workshop 1: Worked examples – heat transfer
Day 2: Thermal and Hydraulic Design of Heat Exchangers
Sizing and Specifying the heat exchanger
Temperature Difference In STHE
Countercurrent, co-current, and cross-current
TEMA flow arrangements, comparisons
worked example
Velocity Triangles and Performance Derivation from First Principles
Pump performance curves: head-capacity, power, efficiency
System curve: static, friction, pressure head components
Fluid Flow and Pressure Drop
Shell & Tube heat exchangers
Plate heat exchangers
Types and application
General design considerations
Condensers and Reboilers
Workshop 2:Worked examples: Thermal design and rating shell & tube heat exchangers
Day 3: Mechanical Design of Heat Exchangers
Design and construction codes and best practices
ASME B&PVC Section VIII
API 660, 661, and 662
TEMA
Basic design of heat exchangers - S&THE, PHE, ACHE
Special design considerations
Piping loads on exchanger nozzles
Impact of service conditions on material selection
Shell & tube heat exchangers
Plate heat exchangers
Materials of construction for heat exchangers
Fabrication of heat exchangers
Workshop 3: Worked examples: Mechanical design of STHE
Day 4: Operation and Maintenance of Heat Exchangers
Fouling In Heat Exchangers
Types and mechanisms, economic impact on design and operation
Fouling mitigation by design
Fouling mitigation by operation and maintenance
Corrosion and erosion in heat exchangers
Heat Exchanger Inspection Methods
Operation and Troubleshooting
Performance monitoring and Testing
Flow-induced vibration, mechanisms, vibration prediction, damage numbers, design procedure to avoid vibration including baffle selection, rod baffle exchangers, twisted tube exchangers
Cleaning strategies and methods: S&THE, PHE, ACHE
Heat Exchanger Repairs
Removal and Replacement of Heat Exchangers
Cost-effective maintenance and repair of heat exchangers
Day 5: Performance Enhancement and Optimization of Heat Exchangers
Heat transfer augmentation techniques
Finned tubes
In-tube Enhancement - Tube inserts, sintered coatings
Tube Bundle Replacement - Alternative enhanced tube bundle designs
rod baffle
heli baffle
twisted tube
Pinch technology
heat exchanger train optimization
Heat Integration Basics
Workshop 4: Illustrative example: Heat exchanger network optimization