
Assess how a typical process manages safety and stability by avoiding water overflow or starvation, with accuracy limited as the operator relies on visible errors and constant attention.
Identify the basic control system components: sensor, controller, actuator, and valves; explain how electrical, pneumatic, hydraulic, and mechanical energy power them, and classify valves by action and configuration.
Explore continuous control, where a valve modulates opening rather than on-off, and proportional, integral, and derivative actions form PI, PD, or PID configurations.
Apply manual or automatic removal of set-point offset. Manual reset shifts the set point by two degrees, matching room temperature at 18 degrees with 83% valve opening.
Explain the time constant in process control by comparing two definitions: time to reach final value from initial, and time to change 63.2% due to a step load.
Explore rangeability, the ratio of maximum to minimum controllable flow. Learn fast opening, linear, and equal percentage valve characteristics and their relation to opening under constant pressure.
Understand single loop control for a steam to water heat exchanger. A thermocouple or platinum resistance thermometer senses water temperature and compares it to the set point, driving the valve.
Understand split range control, where a single controller splits the 0–100% output to multiple valves. Explore non symmetrical splitting, overlap, disjointed areas, and three areas in a tank pressure control.
Analyze how step input reveals a process's dynamic characteristics, including dead time, time constant, and first-order and second-order responses, and explain control challenges when dead time dominates.
Self-acting controls derive power from an enclosed hydraulic or gas system, delivering maintenance-free, robust proportional control with high range and easy installation, but lack integral/derivative functions and valve position indication.
Explore core principles of process control, pid controller design and tuning, and apply them as you prepare to proceed to the next section.
Trace the evolution of process control from nomadic analog controllers to digital systems, I/O devices, distributed control, and field bus bridges shaping modern PID tuning.
Process Control & PID Tuning Masterclass: Principles, Design, and Practical Tuning
The Essential Guide to Process Control—Level, Temperature, Pressure & Flow Regulation with Real-World PID Controller Tuning
Precise control of level, temperature, pressure, and flow is vital for safe, efficient, and profitable operation in every process industry. This hands-on course provides a comprehensive, practical guide to process control fundamentals, PID controller design, and real-world tuning techniques—empowering you to optimize any process system.
Why Take This Course?
Practical, Example-Driven Learning:
Learn by solving real industry problems, with step-by-step solutions and field-tested control schemes.
Immediate Application:
Master the design, functioning, and tuning of process controls for actual plant scenarios.
Industry Standards:
Get clear, actionable PID controller tuning guidelines—including the widely used Ziegler-Nichols method.
What You’ll Learn
Core Process Control Concepts:
Principles of automatic process control
Control system design for level, temperature, pressure, and flow
Common process control schemes and their application
PID Controller Fundamentals:
How PID controllers work: Proportional, Integral, and Derivative actions
Impact of controller settings on system performance
Tuning PID controllers for optimal performance—step-by-step
Tuning Methods & Best Practices:
Ziegler-Nichols tuning method: rationale and application
Precautions and guidelines for reliable controller tuning
Typical tuning examples with formulae and worked solutions
Real-World Guidance:
Technical recommendations and lessons from the field
Common pitfalls and how to avoid them
Downloadable reference data and process control resources
Knowledge Checks:
Section quizzes to reinforce learning and test your understanding
Who Should Enroll?
Process, instrumentation, and control engineers
Plant operators and maintenance professionals
Engineering students and graduates
Anyone responsible for process optimization, reliability, or automation
Course Features
High-quality video lessons with practical examples and clear explanations
Step-by-step controller tuning and troubleshooting guides
Downloadable resources and reference data
Section quizzes to test your knowledge
Lifetime access: Study at your own pace, anytime, anywhere
Instructor support via Udemy Q&A
By the End of This Course, You Will:
Understand the functioning and design of process control systems
Confidently tune PID controllers for any process application
Apply Ziegler-Nichols and other tuning methods in real-world scenarios
Diagnose and resolve typical control system issues
Optimize plant performance, reliability, and safety through effective control
Get Started Now!
Preview the free course videos and explore the curriculum. Join engineers and professionals worldwide who trust WR Training for clear, practical technical education.
Click “Enroll Now” and become a process control and PID tuning expert!
WR Training – Your Partner in Process Automation and Plant Excellence
Spread the wings of your knowledge
* When PID is mentioned, it is with reference to Proportional, Integral and Derivative control actions
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COURSE UPDATES
June 25
We have added new video lectures. In addition, new quizzes are being added to help you test your knowledge and emphasize the key learning points. The quiz will include:
True/False questions
Multi-choice questions
Images, cross-sectionnal views
Solved problems
and much more...
When you think you’ve got a good grasp on a topic within the course, you can test your knowledge by taking the quiz. If you pass, wonderful ! If not, you can review the videos and notes again or ask us for help in the Q&A section.