Pideya Learning Academy

Heat Exchangers: Design, Maintenance, and Repair Techniques

Upcoming Schedules

  • Live Online Training
  • Classroom Training

Date Venue Duration Fee (USD)
24 Feb - 28 Feb 2025 Live Online 5 Day 2750
10 Mar - 14 Mar 2025 Live Online 5 Day 2750
21 Apr - 25 Apr 2025 Live Online 5 Day 2750
09 Jun - 13 Jun 2025 Live Online 5 Day 2750
11 Aug - 15 Aug 2025 Live Online 5 Day 2750
15 Sep - 19 Sep 2025 Live Online 5 Day 2750
13 Oct - 17 Oct 2025 Live Online 5 Day 2750
24 Nov - 28 Nov 2025 Live Online 5 Day 2750

Course Overview

Heat exchangers serve as a foundational component in industrial systems across the globe, facilitating efficient thermal energy transfer between fluids in processes ranging from electricity generation and petrochemical production to HVAC systems and food processing. Their performance directly impacts plant efficiency, operational safety, and overall productivity. Recognizing the increasing complexity and performance expectations placed on modern process equipment, Pideya Learning Academy proudly presents the advanced training program “Heat Exchangers: Design, Maintenance, and Repair Techniques.” This course is specifically curated to empower engineers, technicians, and system managers with the critical expertise required to improve exchanger performance, extend equipment life, and reduce maintenance costs.
Global industry reports forecast the heat exchanger market to grow significantly, reaching USD 28.3 billion by 2029, up from USD 18.55 billion in 2022, with a CAGR of 6.2% (Fortune Business Insights). This rapid expansion is fueled by heightened demand for energy-efficient systems, increased industrialization, and the global push for carbon-neutral operations. Furthermore, data reveals that fouling alone can reduce thermal efficiency by up to 30%, significantly driving up energy consumption and operational expenses. These statistics highlight the urgent need for advanced training in efficient heat exchanger design, performance monitoring, and condition-based maintenance—needs that this Pideya Learning Academy course addresses directly.
Throughout this specialized training, participants will explore the core thermodynamic principles of heat exchange and gain exposure to a wide array of exchanger configurations, including shell-and-tube heat exchangers (STHEs), air-cooled heat exchangers (ACHEs), and plate heat exchangers (PHEs). The course delves into essential technical aspects such as fluid flow dynamics, heat transfer coefficients, and thermal resistance—all of which influence exchanger selection, operation, and efficiency.
In addition to theory, attendees will examine industry-leading design standards and inspection practices guided by international codes such as ASME, TEMA, and API. This ensures familiarity with compliance and performance benchmarks required for safe, sustainable, and regulatory-compliant operations.
A key focus area of the training is identifying operational anomalies—such as fouling, corrosion, scaling, and erosion—and learning how to interpret their effects on system performance. Emphasis is placed on diagnostic tools and failure analysis techniques, which are essential in developing robust inspection routines and selecting the most effective repair or replacement strategies.
Participants will also gain knowledge in advanced topics such as thermal performance audits, mechanical stress evaluation, pressure drop analysis, and the role of non-destructive testing (NDT) in maintenance planning. These insights are reinforced through engineering scenarios and case-based discussions that mirror real-world challenges encountered in various industries.
This Pideya Learning Academy training offers unique value through its:
In-depth exploration of heat transfer theory and exchanger types including shell, plate, and finned-tube designs.
Familiarity with global codes and standards such as ASME, TEMA, and API relevant to exchanger design and inspection.
Root cause analysis skills to address common operational issues like fouling, corrosion, and mechanical failures.
Tools to assess performance based on thermal and hydraulic characteristics and improve energy efficiency.
Maintenance planning strategies that extend equipment life and reduce unscheduled shutdowns.
Application of field case studies and real-world examples to bridge the gap between design and field operations.
Structured approach to troubleshooting, repair decisions, and replacement planning for degraded systems.
By the end of the training, participants will possess the tools and technical insight to enhance exchanger performance, contribute meaningfully to asset integrity strategies, and support energy optimization goals in their respective industries. With a focus on knowledge application and long-term operational reliability, “Heat Exchangers: Design, Maintenance, and Repair Techniques” by Pideya Learning Academy stands as an essential course for professionals seeking to elevate their impact in engineering and maintenance roles.

Course Objectives

After completing this Pideya Learning Academy training, the participants will learn to:
Comprehend the thermal and hydraulic fundamentals of heat exchanger operation.
Apply international codes and guidelines relevant to heat exchanger lifecycle management.
Analyze process and mechanical parameters to optimize exchanger performance.
Select appropriate heat exchanger types based on process requirements.
Identify common issues such as fouling, scaling, and pressure drop anomalies.
Implement structured approaches to inspection, failure analysis, and corrective actions.
Recommend operational enhancements that support sustainable plant efficiency.

Personal Benefits

Participants will gain:
A solid foundation in heat exchanger principles and technologies.
Confidence in evaluating and improving exchanger system performance.
Familiarity with real-time performance monitoring and diagnostic techniques.
Skills to contribute to maintenance planning and reliability-centered operations.
Exposure to globally accepted standards and industry benchmarks.

Organisational Benefits

Organizations that nominate personnel to attend this training can expect to:
Reduce energy consumption and operating costs through improved exchanger efficiency.
Minimize unplanned maintenance through proactive performance monitoring.
Enhance technical competency in identifying and resolving performance issues.
Ensure compliance with safety, design, and operational standards.
Extend the lifecycle of equipment through effective inspection and maintenance regimes.

Who Should Attend

This Pideya Learning Academy course is ideal for professionals involved in the operation, maintenance, or design of thermal and process systems, including:
Maintenance Engineers and Technical Officers
Process and Production Supervisors
Plant Operators and Technicians
Inspection and Reliability Engineers
Mechanical and Process Design Engineers
Plant and Utility Managers
Technical Advisors and Consultants

Course Outline

Module 1: Classification and Functional Scope of Heat Exchangers
Overview of Industrial Heat Exchanger Applications Selection Criteria for Working Fluids Comparison of Heat Exchanger Designs: Shell & Tube, Plate, and Air-Cooled Roles of Key Components: Tube Bundles, Baffles, Tube Sheets, and Nozzles Functional Layouts and Standards (STHE, ACHE, PHE) Application of Condensers, Reboilers, and Evaporators in Process Industries TEMA Classification and Mechanical Configurations
Module 2: Fundamentals of Heat Transfer Mechanisms
Conduction, Convection, and Radiation Principles Governing Equations for Heat Transfer Rate Calculation Temperature Gradient and Heat Exchange Efficiency Log Mean Temperature Difference (LMTD) and Effectiveness-NTU Method Phase Change Considerations in Heat Transfer Role of Heat Flux and Thermal Conductivity Thermal Resistance Networks in Heat Exchanger Analysis
Module 3: Thermal Performance and Sizing of Heat Exchangers
Heat Duty and Surface Area Calculations Impact of Flow Arrangement: Counterflow, Parallel Flow, Crossflow Heat Exchanger Rating and Sizing Procedures Thermal Constraints and Design Margins Flow Maldistribution and Temperature Profile Analysis Fouling Factors in Thermal Design Calculations Transient Thermal Response and Control
Module 4: Hydraulic Engineering and Pressure Drop Analysis
Velocity Distribution in Tube and Shell Sides Pressure Loss Estimation and System Impact Pumping Power Requirements and Efficiency Nozzle Sizing and Flow Acceleration Hydraulic Design Considerations for Compact Heat Exchangers Fan and Drive Sizing for Air-Cooled Heat Exchangers Flow Resistance Coefficients and System Balance
Module 5: Specialized Design for Plate and Compact Heat Exchangers
Plate Heat Exchanger Design Parameters Compabloc and Welded Plate Exchanger Configurations Heat Transfer Enhancement in Corrugated Plates Thermal and Hydraulic Comparison with Tubular Systems Operating Limits and Mechanical Integrity Expansion Allowance and Flow Distribution Material Compatibility and Performance Metrics
Module 6: Structural Design and Mechanical Integrity
ASME Code Compliance and Design Criteria Stress Analysis of Tubesheets, Shells, and Supports Load Calculations for External Piping and Nozzle Stresses Material Selection: Corrosion Resistance and Temperature Ratings Design for Thermal Expansion and Vibration Control Overview of Fabrication Processes and Welding Standards Fatigue Life Estimation and Safety Margins
Module 7: Reliability, Inspection, and Failure Mitigation
Typical Failure Modes in Heat Exchangers Fouling, Scaling, and Deposition Mechanisms Inspection Techniques: Visual, Ultrasonic, Eddy Current Testing Failure Analysis: Corrosion, Erosion, and Cracking Fitness-for-Service (FFS) and Remaining Life Assessment Repair Solutions: Re-tubing, Plugging, and Overlay Welding Preventive Maintenance Planning and Asset Reliability
Module 8: Operational Optimization and Performance Tuning
Real-Time Monitoring Techniques and KPIs Diagnostic Tools for Performance Deviation Flow Distribution and Temperature Tracking Evaluation of Thermal and Hydraulic Efficiency Predictive Maintenance Integration Troubleshooting Flow Instabilities and Tube Vibrations Optimization of Operating Parameters
Module 9: Energy Integration and Process Efficiency
Principles of Energy Recovery in Process Design Pinch Analysis and Minimum Energy Requirement Integration of Heat Exchangers in Process Networks Heat Recovery Loop Optimization Utility Consumption Reduction Strategies Design Trade-offs for Capital vs. Operating Cost Thermal Matching and Stream Allocation
Module 10: Advanced Heat Transfer Enhancement Techniques
Use of Extended Surfaces: Finned Tubes and Inserts Helical Baffles and Twisted Tube Designs Passive and Active Heat Transfer Augmentation Nanofluids and Surface Coatings Turbulence Promoters and Flow Modifiers Design Implications of Enhanced Surfaces Economic and Performance Evaluation of Enhancement

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