Pideya Learning Academy

Heat Exchanger Design and Maintenance Techniques

Upcoming Schedules

  • Live Online Training
  • Classroom Training

Date Venue Duration Fee (USD)
06 Jan - 10 Jan 2025 Live Online 5 Day 2750
17 Mar - 21 Mar 2025 Live Online 5 Day 2750
05 May - 09 May 2025 Live Online 5 Day 2750
16 Jun - 20 Jun 2025 Live Online 5 Day 2750
14 Jul - 18 Jul 2025 Live Online 5 Day 2750
25 Aug - 29 Aug 2025 Live Online 5 Day 2750
10 Nov - 14 Nov 2025 Live Online 5 Day 2750
15 Dec - 19 Dec 2025 Live Online 5 Day 2750

Course Overview

Heat exchangers play a vital role in a wide range of industrial operations by enabling efficient thermal energy exchange between fluids without mixing them. They are indispensable components in sectors such as power generation, oil and gas, petrochemical processing, HVAC systems, food manufacturing, marine applications, and refrigeration technologies. As industries shift toward sustainable practices and optimized energy use, the design and performance of heat exchanger systems have become increasingly central to achieving energy efficiency and regulatory compliance.
According to the International Energy Agency (IEA), optimizing industrial heat processes—including the deployment of advanced heat exchanger technologies—can lead to energy savings of up to 20% across various industries. Furthermore, the U.S. Department of Energy estimates that more than 50% of industrial energy use ends up as waste heat, much of which could be recovered and reused with properly designed and maintained heat exchangers. In a global market driven by decarbonization goals, heat exchanger efficiency can directly influence profitability, safety, and environmental impact.
In this context, Pideya Learning Academy introduces its specialized training program titled Heat Exchanger Design and Maintenance Techniques. This course is designed to empower engineers, maintenance professionals, and technical personnel with critical knowledge and practical insights into heat exchanger systems. Participants will explore key concepts in thermal design, mechanical configuration, system optimization, and maintenance management, equipping them to enhance the reliability and efficiency of thermal systems in their respective industries.
The course covers a comprehensive range of heat exchanger technologies, including shell-and-tube, plate-type, finned tube, air-cooled, spiral, and double-pipe configurations. Participants will learn how to evaluate thermal and mechanical design parameters, calculate energy transfer rates, assess performance factors, and interpret operating data for improved system control. In addition, the training addresses common failure modes, fouling mechanisms, scaling issues, corrosion risks, and energy losses—providing strategies for early detection and prevention.
Delivered by experienced industry professionals, this program balances technical depth with conceptual clarity, avoiding unnecessary complexity in mathematical modeling while ensuring participants gain a strong command of engineering fundamentals. The content is structured to accommodate both entry-level and experienced professionals, enabling effective knowledge transfer and cross-disciplinary learning.
The training also integrates global case studies and performance benchmarks to help participants align their practices with industry-leading standards. It goes beyond design theory to examine real-world challenges, giving special focus to reliability engineering, material selection, pressure drop considerations, and the thermal optimization of industrial heat exchangers.
Throughout the program, participants will benefit from:
In-depth coverage of industrial heat exchanger types and core design principles
A strong focus on performance bottlenecks, fouling control, and system longevity
Real-world application scenarios and industry-relevant problem-solving techniques
Energy-saving strategies and thermal efficiency improvement methods
Clear explanations without complex mathematics, ideal for multidisciplinary audiences
Insights into failure prevention, inspection routines, and maintenance scheduling
Enhanced awareness of environmental and operational compliance factors
By the end of this training, attendees will be equipped with the technical confidence and operational strategies needed to select, maintain, and optimize heat exchanger systems that meet modern industrial performance and sustainability demands. With this solid foundation, professionals can contribute meaningfully to energy conservation efforts, reliability-centered maintenance practices, and process improvement initiatives within their organizations.
Pideya Learning Academy remains committed to delivering high-quality, SEO-optimized, and industry-relevant training programs that empower technical professionals with the tools they need to drive impactful outcomes in their respective fields.

Course Objectives

After completing this Pideya Learning Academy training, the participants will learn:
The classification and function of various types of heat exchangers used in industrial processes
The thermodynamic principles behind heat transfer across different exchanger configurations
Engineering considerations for designing heat exchangers to meet process-specific demands
Common performance challenges such as fouling, scaling, and pressure drop—and how to address them
Best practices for maintaining heat exchanger integrity and reliability
Strategies for increasing energy efficiency through effective thermal management
Insights into the material selection and mechanical design features relevant to durability and cost-effectiveness

Personal Benefits

Improved understanding of mechanical and thermal dynamics relevant to heat exchanger technology
Practical knowledge applicable across multiple industrial sectors
Ability to analyze and troubleshoot performance issues with greater confidence
Increased value as a contributor to process improvement and energy optimization
Career advancement opportunities through specialized technical knowledge

Organisational Benefits

Enhanced energy efficiency and reduced operational costs through improved heat exchanger performance
Reduction in downtime due to better failure detection and preventive maintenance strategies
Empowered workforce capable of making informed decisions regarding equipment selection and system design
Alignment with sustainability goals by reducing thermal losses and carbon footprint
Strengthened compliance with industry standards and safety requirements

Who Should Attend

This course is ideally suited for:
Mechanical, chemical, and process engineers working in industrial facilities
Maintenance and operations personnel responsible for equipment performance
Plant managers and technical supervisors seeking to improve system reliability
Engineering consultants involved in energy audits and process optimization
Professionals involved in project design, procurement, and utility systems management

Course Outline

Module 1: Principles of Thermal Energy Exchange
Modes of heat transfer: conduction, convection, and radiation Heat transfer equations and boundary conditions Heat exchanger classification by function and construction Influence of thermophysical properties on heat transfer
Module 2: Heat Transfer Analysis and Flow Dynamics
Temperature profiles in heat exchangers Counter-flow and parallel-flow configurations Log Mean Temperature Difference (LMTD) Heat capacity rates and effectiveness
Module 3: Specialized Heating Units and Flow Equipment
Indirect heating systems: fire tube heaters, coil heaters, and bath heaters Design parameters for double pipe exchangers Introduction to gas and fluid heating case studies Performance indicators: heat duty and overall heat transfer coefficient
Module 4: Shell and Tube Heat Exchanger Fundamentals
Major components: shell, tubes, baffles, tube sheets Heat exchanger types: fixed tube sheet, floating head, U-tube Flow arrangements and impact on heat transfer Construction materials and fouling resistance
Module 5: Operational Performance of Shell and Tube Systems
Heat exchanger effectiveness and NTU method Case-specific performance analysis: gas-to-gas exchangers Effective temperature difference analysis Thermal stress and expansion considerations
Module 6: Complex Heat Exchanger Operations
Operating challenges: high-pressure drop, vibration, scaling Performance metrics for gas/condensate applications Process integration: heat recovery and pinch analysis Operating characteristics of gas chillers
Module 7: Refrigerant-Based Heat Exchangers
Condensate cooling systems and cycle integration Subcoolers and their role in refrigerant loop efficiency Thermal balance and control strategies Cryogenic applications and refrigerant properties
Module 8: Advanced Phase Change Equipment
Vaporizers: kettle reboilers, thermosiphon reboilers Forced circulation and pump-around systems Heat transfer during boiling and condensation Pressure and temperature control strategies
Module 9: Condensation Systems in Process Plants
Partial vs. total condensers: operational distinctions Condenser configurations: vertical and horizontal Vacuum and pressure-driven condensation Case studies in gas dehydration and petrochemical cooling
Module 10: Engineering Design Constraints and Codes
Pressure drop analysis across exchangers Flow-induced vibration and resonance mitigation Thermal Expansion and mechanical design Industry codes: TEMA, ASME, and API compliance
Module 11: Compact and Innovative Heat Exchanger Designs
Hairpin heat exchangers and their applications Tank immersion heaters and design flexibility Plate-fin exchangers and compact design advantages Plate-frame exchangers and gasket selection criteria
Module 12: Emerging Technologies in Heat Exchange
Printed circuit heat exchangers: microchannel design Heat exchanger selection for hydrogen and LNG applications Advanced materials for corrosive and high-temperature environments Process optimization with advanced heat exchanger technologies

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