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Why Choose Chemical Engineering for Non-Chemical Engineers Training Course?

The Chemical Engineering for Non-Chemical Engineers Course gives operations, maintenance, instrumentation, and technical professionals a practical, accessible understanding of chemical engineering principles — covering process fundamentals, fluid flow, heat transfer, separation processes, process control, and plant economics, all explained in a way that connects directly to the industrial environments delegates work in every day.

Many professionals working in refining, petrochemical, power, and process industries need to understand chemical engineering concepts to do their jobs effectively but have never had formal chemical engineering training. Whether reading process diagrams, understanding pump and compressor behaviour, troubleshooting separation equipment, or interpreting control systems, a working knowledge of chemical engineering principles makes every technical professional more capable and more valuable.

This course bridges that gap covering the essential chemical engineering concepts that non-chemical engineers encounter in their roles, without the mathematical complexity of a formal engineering degree. Every topic is taught in a practical, application-focused context that delegates can connect directly to what they see and work with in the plant.

The Chemical Engineering for Non-Chemical Engineers Course is built for technical professionals who want to understand the engineering behind the processes they work with and communicate more confidently with the chemical engineers around them.

 

What are the Goals?

The Chemical Engineering for Non-Chemical Engineers Course is designed to develop a practical, working understanding of core chemical engineering principles — from process fundamentals and fluid flow through to heat transfer, separation processes, process control, and plant economics.

By the end of this course, participants will be able to:

  • Apply mass and energy balance principles and explain common reactor types and their applications
  • Read and interpret process and engineering diagrams and understand electrical area classification and flammability considerations
  • Apply safety, risk management, and hazard study principles within a process engineering context
  • Explain fluid flow principles including pressure, Bernoulli's theorem, Reynolds number, and pressure drop in pipes
  • Understand two-phase and multi-phase flow, thermodynamics, and the design principles of process relief systems
  • Identify and explain the function and selection of mechanical equipment including pumps, compressors, and mixers
  • Explain heat transfer mechanisms and coefficients and understand heat exchanger types and sizing principles
  • Apply basic process control principles including feedback control and classify measured variables and control system types
  • Conduct preliminary economic analysis including fixed and variable costs, break-even analysis, and process equipment cost estimation

Who is this Training Course for?

The Chemical Engineering for Non-Chemical Engineers Course is designed for technical and operations professionals who work in process, refining, petrochemical, or industrial environments and need a practical understanding of chemical engineering principles — without the requirements of a formal chemical engineering qualification.

This course is suitable for:

  • Mechanical and electrical engineers working in process plants who need to understand the chemical engineering context of their work
  • Operations supervisors and technicians responsible for day-to-day management of process equipment and systems
  • Instrumentation and control engineers who need a stronger understanding of the process systems they are measuring and controlling
  • Maintenance engineers supporting process equipment reliability who want to understand how that equipment functions within the process
  • Project engineers and technical professionals involved in process plant design, commissioning, or modification projects
  • HSE professionals responsible for process safety, hazard studies, and risk management in chemical or refining facilities
  • Procurement and commercial professionals who deal with process equipment specifications and plant economics
  • Graduate engineers from non-chemical disciplines entering roles in process, refining, or petrochemical environments

How will this Training Course be Presented?

The Chemical Engineering for Non-Chemical Engineers Course is delivered through a clear, practically focused learning approach that introduces chemical engineering concepts in straightforward, accessible language — always connecting principles to the real equipment, processes, and decisions that delegates encounter in their working environments.

The course deliberately avoids unnecessary mathematical complexity focusing instead on conceptual understanding, practical application, and the ability to work more effectively alongside chemical engineering colleagues and within process environments.

Delivery methods include:

  • Instructor-led sessions covering process fundamentals, fluid mechanics, heat transfer, separation, control, and plant economics
  • Process and engineering diagram interpretation exercises developing the ability to read and understand P&IDs and process flow diagrams
  • Fluid flow and hydraulics workshops applying Bernoulli's theorem, Reynolds number, and pressure drop concepts to real piping systems
  • Heat exchanger and heat transfer sessions explaining coefficients, sizing principles, and the performance of different exchanger types
  • Plant economics exercises applying break-even analysis, cost estimation, and preliminary economic evaluation to process plant decisions

The Course Content

  • Mass and energy balances
  • Reactor types
  • Process & Engineering Diagrams
  • Flammability
  • Electrical area classification
  • Safety, Risk Management and Hazard Studies
  • Pressure and head & Bernoulli's theorem
  • Flow of liquids, Reynolds number and pressure drop in pipes
  • Two-phase and multi-phase flow
  • Enthalpy and thermodynamics
  • Principle of process relief devices and process design of relief systems
  • Mechanical Equipment – Pumps, Compressors & Mixers
  • Heat Transfer Mechanisms 
  • Heat transfer coefficients and calculation
  • Heat exchangers, type and sizing  
  • Catalysis and Reaction Engineering
  • Chemical reactions & kinetics
  • Green Chemistry & Engineering and Sustainability
  • Phase behaviour and vapour/liquid equilibria
  • Gas/Liquid separation
  • Distillation equipment - Columns and vessels 
  • Troubleshooting of process equipment
  • Overview of Other Separation Processes 
  • Effluent treatment in refinery and petrochemical industries
  • Classification of control systems
  • Measured variables
  • Simple feedback control
  • Preliminary economic analysis
  • Fixed and variable costs, break even analysis
  • Estimating the cost of process equipment and plants

Certificate

  • AZTech Certificate of Completion for delegates who attend and complete the training course

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This course is designed for mechanical engineers, electrical engineers, instrumentation professionals, operations technicians, maintenance engineers, HSE professionals, and project engineers who work in process, refining, or petrochemical environments and need a practical understanding of chemical engineering principles. It is equally valuable for those newer to process environments and experienced technical professionals who want to fill gaps in their chemical engineering knowledge.  

Process and engineering diagrams including P&IDs and process flow diagrams are covered on Day 1 as a foundational skill for anyone working in a process environment. Delegates learn how to read and interpret these documents, understand the symbols and conventions used, and extract the operational and safety information they contain. This capability alone significantly improves a non-chemical engineer's ability to work effectively in a process plant environment.  

Day 4 covers distillation and separation processes including phase behaviour, vapour-liquid equilibria, gas-liquid separation, distillation column operation, and the troubleshooting of process equipment. Delegates develop a practical understanding of how separation equipment works, what causes operational problems, and how different separation processes are selected and applied enabling more effective engagement with process and chemical engineering teams.  

Absolutely not the course is specifically designed for professionals without a chemical engineering background. Technical concepts are introduced in clear, practical language with a focus on understanding and application rather than mathematical derivation. Delegates from mechanical, electrical, instrumentation, operations, and HSE backgrounds consistently find the content accessible, relevant, and immediately useful in their roles.  

Day 2 covers fluid flow and hydraulics in a practical, application-focused way explaining pressure and head, Bernoulli's theorem, Reynolds number, pressure drop in pipes, two-phase flow, and the design principles of process relief systems. Delegates leave with a working understanding of why fluids behave the way they do in process piping systems knowledge that directly supports more effective operation, troubleshooting, and communication with chemical engineering colleagues.  

Process safety is introduced on Day 1 and reinforced throughout the course covering flammability, electrical area classification, safety risk management, and hazard study principles in the context of process engineering. Delegates develop the safety awareness to understand why process equipment is designed the way it is, how relief systems protect against overpressure, and what hazard study processes like HAZOP are designed to achieve.  

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