Process Control Training for Chemical Engineers

Practical Control Systems Training for Process Industries

Modern chemical, petrochemical, pharmaceutical, fertilizer, and energy industries depend heavily on advanced process control systems to ensure safety, quality, efficiency, and regulatory compliance. Chemical engineers are expected not only to understand the process but also to understand how the process is measured, controlled, stabilized, and optimized.

The Process Control Training for Chemical Engineers course is designed to provide practical, industry-oriented knowledge of control theory and real plant control systems, enabling participants to confidently work with instrumentation, automation, and distributed control systems in operating plants.

Why This Course Is Required

Industry Reality

Most chemical engineers:

  • Learn process control mainly as a theoretical subject

  • Lack exposure to real control loops, tuning, and plant dynamics

  • Do not understand how DCS, PLC, and field instruments interact

  • Are not trained in troubleshooting unstable or inefficient control systems

Industries, on the other hand, require engineers who can:

  • Design and analyze control strategies

  • Tune and maintain stable process operations

  • Handle disturbances and abnormal situations

  • Improve quality, safety, and energy efficiency

This course bridges the gap between theory, instrumentation, automation, and real industrial operation.

Who Should Attend

  • Chemical Engineering students and fresh graduates

  • Process engineers working in chemical and petrochemical plants

  • Production, operations, and utility engineers

  • Instrumentation and automation engineers working with process systems

  • Professionals involved in safety, quality, and optimization

  • Postgraduate and research students in chemical engineering

What You Will Learn

After completing this training, participants will be able to:

  • Understand process dynamics and control concepts clearly

  • Design and analyze feedback and feedforward control loops

  • Tune PID controllers for stable plant operation

  • Interpret P&IDs and control narratives

  • Integrate process understanding with DCS / PLC systems

  • Troubleshoot common control problems in chemical plants

  • Improve safety and operational reliability through better control

Course Curriculum

Module 1: Fundamentals of Process Control

  • Control objectives and plant stability

  • Open loop and closed loop systems

  • Feedback, feedforward, and cascade control

  • Process disturbances and noise

Module 2: Process Dynamics

  • Dynamic behavior of chemical processes

  • Time constants, dead time, and process gain

  • First-order and higher-order systems

  • Stability and transient response

Module 3: Sensors and Measurement

  • Temperature, pressure, flow, and level measurement

  • Analytical instruments (pH, conductivity, composition)

  • Signal conditioning and calibration

  • Field instrumentation selection

Module 4: Final Control Elements

  • Control valves and actuators

  • Valve sizing basics and characteristics

  • Positioners and accessories

  • Common valve problems and diagnostics

Module 5: Controllers and Control Algorithms

  • PID control theory and implementation

  • Tuning methods (Ziegler-Nichols, trial-and-error, software-based tuning)

  • Anti-reset windup and filtering

  • Multivariable control concepts

Module 6: Advanced Control Strategies

  • Cascade and ratio control

  • Override and split-range control

  • Feedforward control

  • Basic introduction to MPC

Module 7: Control System Architecture

  • PLC, DCS, and SCADA overview

  • Control system hardware and networks

  • Cybersecurity basics for industrial control

  • Redundancy and system reliability

Module 8: Safety and Abnormal Situations

  • Alarms and interlocks

  • Safety instrumented systems (SIS)

  • Emergency shutdown systems

  • Process safety integration

Module 9: Case Studies and Industrial Examples

  • Reactor temperature control

  • Distillation column pressure and composition control

  • Utility systems control (boilers, cooling towers)

  • Troubleshooting unstable loops

Model Projects Included

Model Project 1: Control Loop Design

  • Develop control strategy for a reactor or distillation column

  • Selection of sensors, valves, and controller

Model Project 2: PID Tuning Exercise

  • Analyze loop behavior

  • Tune controller and evaluate performance

Model Project 3: Plant Disturbance Simulation

  • Study disturbance effects

  • Propose corrective control strategies

Career Opportunities After This Course

Hiring Industries

  • Chemical and petrochemical plants

  • Pharmaceutical manufacturing

  • Fertilizer and specialty chemical industries

  • Oil and gas processing

  • EPC and automation companies

Job Roles

  • Process Engineer

  • Control Engineer

  • Automation Engineer

  • Production Engineer

  • Process Safety Engineer

  • Instrumentation Engineer

Training Methodology

  • Practical, plant-oriented teaching

  • Real industrial case studies

  • Problem-solving approach

  • Concept-to-application structure

  • Interview-oriented technical guidance

Certification

Certificate in Process Control for Chemical Engineers
Issued by Pertecnica Engineering

Why Choose Pertecnica Engineering

  • Trainers with real plant experience

  • Industry-relevant curriculum

  • Practical focus rather than only theory

  • Career-oriented training design

  • Ethical and transparent approach

Same syllabus for the following courses..

Process Control Training for Chemical Engineers
Chemical Process Control Course
PID Control Training for Chemical Engineers
DCS Training for Chemical Engineers
Process Automation Training