PiControl Solutions
PiControl Solutions

IHE825 - Industrial Heat Exchanger Control

Heat exchanger fundamentals and temperature-control-loop training for process, chemical, mechanical, and plant engineers - 1 day in the classroom or 8 hours online, finishing with a completion certificate.

Heat exchanger fundamentals to control-loop applicationCompletion certificate included
Overview

Industrial Heat Exchangers and Temperature Control

The IHE825 industrial heat exchanger control course teaches process, chemical, mechanical, plant, and equipment engineers how heat exchangers work and how their temperature control loops behave in an operating plant. Heat exchangers are critical heat-transfer equipment in chemical engineering, designed to move heat from one process stream to another without mixing the fluids across the separating wall, and every temperature control loop on a shell-and-tube, plate, or air-cooled exchanger inherits the thermal dynamics of the equipment it controls. IHE825 runs as 1 day of classroom training or 8 hours online.

IHE825 covers heat exchanger classification, the different types of heat exchangers found in industry, construction and material selection, and design parameters using the LMTD and NTU methods, then connects that equipment knowledge to how thermal process dynamics show up on a controller faceplate. Attendees leave able to recognize the common operational problems - fouling, tube leaks, bypass, and flow maldistribution among them - that drive control loop performance and temperature-control troubleshooting on real equipment.

Curriculum

What You Learn in the IHE825 Heat Exchanger Control Course

IHE825 moves from heat exchanger fundamentals to design calculations to the operational problems that drive temperature control loop performance in the plant. After completing the course, attendees can select the right heat exchanger for a process, calculate efficiency and required surface area, apply the LMTD and NTU design methods, and connect equipment condition - fouling, bypass, tube leaks - to what shows up as temperature control loop behavior on a DCS or PLC faceplate.

The course covers the following topics.

Module 01 · 4 topics

Heat exchanger fundamentals & classification

  • Introduction to industrial heat exchangers and heat transfer equipment
  • Heat transfer mechanisms: conduction, convection, and radiation
  • Classification of heat exchangers by construction, flow arrangement, and application
  • Different types of heat exchangers in industry: shell-and-tube, plate, air-cooled, and more
Module 02 · 3 topics

Construction, materials & standards

  • Construction principles and best materials for heat exchanger construction
  • Material selection considerations for pressure-temperature operating conditions
  • Heat exchanger standards and codes for safe, efficient operation
Module 03 · 4 topics

Design parameters & the LMTD vs NTU method

  • Design parameters and how to calculate heat exchanger efficiency
  • Determining heat transfer coefficients and required surface area
  • The LMTD (log mean temperature difference) method in heat exchanger design
  • The NTU (number of transfer units) method, and when to use LMTD vs NTU
Module 04 · 4 topics

Operational problems & temperature control

  • Common problems in heat exchanger operation: fouling, tube leaks, bypass, and flow maldistribution
  • How fouling and maintenance condition change process gain, dead time, and thermal lag on a control loop
  • Recognizing thermal process dynamics on temperature control loop trends
  • Applications of heat exchangers and their control loops in chemical plants, HVAC, and power generation

Once these topics are complete, engineers choose the delivery format that fits their schedule and plant access.

Who the Course Is For

IHE825 is built for the people responsible for heat exchanger selection, design, and temperature control loop performance in the plant: process control engineers, chemical engineers, mechanical engineers, plant engineers, equipment engineers, operations engineers, and maintenance supervisors. Some plant experience and/or a 3-year associate's diploma in a technical field is expected, because the course moves quickly from fundamentals into design calculations and applied control-loop troubleshooting.

01

Process & control engineers

Build a working equipment model of the heat exchangers behind your temperature control loops, so tuning and troubleshooting decisions account for thermal lag, fouling, and dead time rather than treating the loop as a black box.

02

Mechanical & equipment engineers

Learn the classification, construction, material selection, and LMTD vs NTU design methods needed to select and specify the right heat exchanger for a process, plus the standards and codes that govern safe operation.

03

Operations & maintenance

Connect fouling, tube leaks, and bypass conditions on the equipment side to the temperature swings, sluggish response, and oscillations operators see on the control loop, so troubleshooting starts from the right root cause.

Bring your whole team

IHE825 also suits full teams from a single plant. Group participation works well when a team shares responsibility for heat exchanger reliability or a temperature control upgrade, and companies use the course for equipment onboarding, thermal process troubleshooting readiness, and control room upskilling. Onsite corporate training is available on request so a team trains together on its own exchangers.

Schedule On-Site Training
Hands-on labs

Apply It on PiHEx

Heat exchanger theory sticks best when it is tested against equipment that behaves like the real thing. IHE825 references PiControl's PiHEx real-time dynamic heat exchanger simulator for hands-on control practice: PiHEx models shell-and-tube heat transfer, fouling effects, and dual-stream temperature control, so engineers can see how the classification, construction, and design concepts from the classroom translate into thermal process dynamics on a live temperature control loop.

Attendees who want to carry that practice further into loop tuning itself typically continue with PiControl's PID100 PID tuning course, which uses real-time simulation software to tune temperature and other process control loops, including on heat exchangers, with an automatic grading report card.

PIHEX · LOOP TC-201REAL-TIMETSPHOT-SIDE FLOW UPSETt →SHELL T142°FTUBE T96°FFOULINGLowLOOP STATUSOn SP
PiHEx · dual-stream temperature control on a simulated shell-and-tube exchanger
Certification & materials

Certification and Course Materials

IHE825 attendees receive a PiControl IHE825 Completion Certificate, which supports professional development records and can be added to a resume or LinkedIn profile. The certificate documents completion of the heat exchanger classification, construction, design, and temperature-control-loop troubleshooting curriculum described above.

Attendees also receive heat exchanger training slides for reference back in the plant. Engineers who want to carry the equipment knowledge from IHE825 into hands-on loop tuning typically continue with PiControl's PID100 PID tuning course.

  • Completion certificate
  • Heat exchanger training slides
  • LMTD & NTU design reference
  • PiHEx hands-on simulator practice
  • Common problems & troubleshooting checklist
  • PID100 follow-on pathway
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PiControl Solutions
Certificate of Completion
IHE825
Industrial Heat Exchanger Control
Instructor
Date
FAQ

IHE825 Frequently Asked Questions

Short answers to the questions engineers ask most before enrolling in the IHE825 industrial heat exchanger control course.

IHE825 runs as 1 day of classroom training or 8 hours online. The classroom format is instructor-led, and the online format is self-paced so engineers can complete it around plant duties.
IHE825 is designed for process control engineers, chemical engineers, mechanical engineers, plant engineers, equipment engineers, operations engineers, and maintenance supervisors. Anyone responsible for heat exchanger selection, design, or temperature control loop performance benefits from the course.
Some plant experience and/or a 3-year associate's diploma in a technical field is expected. IHE825 covers heat exchanger fundamentals before moving into design calculations and applied control-loop topics.
Yes. IHE825 covers the LMTD (log mean temperature difference) and NTU (number of transfer units) methods in heat exchanger design, including when to use each, alongside how to calculate heat exchanger efficiency and required surface area.
The course explains how equipment condition - fouling, tube leaks, bypass, and flow maldistribution - changes the process gain, dead time, and thermal lag a temperature control loop has to work with, and references PiControl's PiHEx real-time simulator so attendees can see that thermal process dynamics in action.
Attendees receive a PiControl IHE825 Completion Certificate. It documents completion of the course and can be used for professional development records or added to a resume or LinkedIn profile.
Engineers who want to carry heat exchanger equipment knowledge into hands-on loop tuning typically continue with PID100, PiControl's PID tuning course, which uses real-time simulation software to tune temperature and other process control loops with an automatic grading report card.
Yes. Group participation works well for teams responsible for heat exchanger reliability or a temperature control upgrade, and onsite corporate training is available on request so a team trains together on its own exchangers.
Enroll now

Request Info on IHE825

Request course info on IHE825 to give your engineering team a practical grounding in heat exchanger fundamentals and temperature control, with a completion certificate. Online, 1-day classroom, and onsite formats are available, so teams in any location or time zone can start.

Hands-on practice: try the PiHEx real-time heat exchanger simulator. More training: visit the Training. Questions: info@PiControlSolutions.com, Tel: (832) 495 6436.