What You Will Gain

Year 1: Foundations of Chemical Engineering

Introduction to Chemical Engineering

• Understand the role and scope of chemical engineering in industry.
• Recognize the fundamental principles of chemical processes and engineering practice.

Basic Thermodynamics

• Comprehend the laws of thermodynamics and their applications to chemical engineering.
• Solve problems involving energy balances and thermodynamic cycles relevant to chemical processes.

Mathematics for Chemical Engineers

• Apply mathematical methods, such as calculus and differential equations, to solve engineering problems.
• Use numerical methods for process modeling and simulation.

Fluid Mechanics

• Understand the principles of fluid behavior, flow dynamics, and how fluids interact in chemical processes.
• Analyze and solve fluid flow problems using relevant equations and techniques.

Material and Energy Balances

• Conduct material and energy balance calculations for simple and complex chemical systems.
• Apply conservation principles to solve engineering problems in chemical processes.

Introduction to Process Control

• Understand the basic principles of process control systems and their applications.
• Apply control theory to maintain stability and performance in chemical processes.

Chemistry for Chemical Engineers

• Understand the fundamentals of chemistry, including reaction mechanisms, stoichiometry, and chemical equilibrium.
• Apply chemical principles to solve engineering problems in the chemical process industries.

Introduction to Reaction Engineering

• Study the kinetics of chemical reactions and understand the design of chemical reactors.
• Analyze simple reaction systems and calculate reaction rates.

Engineering Drawing and CAD

• Develop skills in engineering drawing techniques and computer-aided design (CAD) tools.
• Create accurate technical drawings and models of chemical engineering systems.

Professional Skills Development

• Build skills in communication, teamwork, and problem-solving essential for chemical engineers.
• Develop an understanding of professional and ethical responsibilities in engineering practice.

Heat and Mass Transfer Fundamentals

• Understand the principles of heat and mass transfer in chemical processes.
• Apply these principles to solve real-world engineering problems such as heat exchangers and distillation columns.

Chemical Engineering Principles

• Integrate fundamental chemical engineering principles to analyze and design chemical processes.
• Apply concepts such as stoichiometry, thermodynamics, and transport phenomena in process analysis.

Year 2: Advanced Chemical Engineering Concepts

Advanced Thermodynamics

• Apply advanced thermodynamic cycles and processes to complex chemical systems.
• Analyze phase equilibria, chemical reaction equilibria, and non-ideal systems.

Heat Transfer

• Understand advanced heat transfer methods, including conduction, convection, and radiation.
• Design heat transfer equipment and optimize heat exchangers.

Mass Transfer Operations

• Master mass transfer processes such as distillation, absorption, and filtration.
• Analyze and design separation equipment based on mass transfer principles.

Chemical Process Design

• Apply chemical engineering principles to the design of chemical processes and systems.
• Design process flowsheets, select materials, and optimize the performance of chemical processes.

Industrial Chemistry

• Understand the application of chemical principles in industrial settings, focusing on the production of chemicals, polymers, and pharmaceuticals.
• Apply industrial chemistry techniques to scale-up laboratory processes for commercial production.

Process Systems Engineering

• Apply systems engineering techniques to model, design, and optimize large-scale chemical processes.
• Use process simulation software to optimize system performance and efficiency.

Fluid Dynamics and Flow Systems

• Study advanced fluid dynamics, including turbulent and laminar flows, and apply this knowledge to chemical processing.
• Design and analyze piping systems, pumps, and flow meters.

Reaction Engineering

• Study more complex chemical reaction systems, including heterogeneous reactions and catalytic processes.
• Apply reaction engineering principles to design and optimize reactors for industrial processes.

Environmental Engineering

• Understand the impact of chemical processes on the environment and develop sustainable solutions to reduce pollution.
• Design processes that minimize waste, conserve energy, and comply with environmental regulations.

Process Control and Automation

• Master advanced process control techniques, including PID control, supervisory control, and automation systems.
• Design and implement automated control systems to enhance the performance of chemical plants.

Process Modeling and Simulation

• Use process modeling and simulation software to predict system behavior under different operating conditions.
• Develop dynamic models of chemical processes for optimization and troubleshooting.

Engineering Materials

• Study materials used in chemical engineering applications, including metals, polymers, and ceramics.
• Analyze the properties and behavior of materials in various chemical processes.

Year 3: Specialization and Industry Application

Advanced Process Control

• Master advanced control strategies for complex chemical systems, including multi-loop control and advanced process diagnostics.
• Design control strategies that optimize plant efficiency, safety, and reliability.

Process Safety and Risk Management

• Understand the principles of process safety management, hazard analysis, and risk assessment.
• Develop strategies to mitigate safety risks and ensure compliance with industry standards.

Chemical Plant Design

• Apply engineering principles to design a complete chemical plant, including process flow design, equipment selection, and site planning.
• Conduct economic feasibility studies and consider environmental impacts in plant design.

Sustainable Chemical Engineering

• Understand the role of chemical engineering in promoting sustainability, including renewable energy, waste minimization, and resource efficiency.
• Develop sustainable processes that reduce environmental footprints and improve energy efficiency.

Separation Technology

• Study advanced separation processes such as membrane filtration, centrifugation, and adsorption.
• Design and optimize separation systems to enhance product yield and purity.

Computational Fluid Dynamics (CFD)

• Master CFD techniques to model fluid flow, heat transfer, and mass transfer in complex chemical systems.
• Apply CFD simulations to optimize the design and operation of chemical engineering systems.

Advanced Materials Science

• Study the properties of advanced materials used in chemical engineering, including nanomaterials, composites, and biomaterials.
• Analyze the performance and selection of materials for specific chemical engineering applications.

Process Optimization

• Use optimization techniques to improve the efficiency and performance of chemical processes.
• Apply mathematical modeling, statistical analysis, and simulation to optimize production processes.

Industrial Placement / Internship

• Gain practical experience in the chemical engineering field by working on real-world projects in industry.
• Apply theoretical knowledge to solve practical problems and develop industry-specific skills.

Capstone Project

• Undertake a comprehensive research project that integrates all aspects of chemical engineering.
• Develop a solution to a real-world problem, demonstrating your ability to innovate and apply engineering principles effectively.

Project Management for Chemical Engineers

• Develop project management skills essential for chemical engineering projects, including planning, budgeting, scheduling, and team coordination.
• Learn to manage resources, risks, and deadlines in large-scale engineering projects.

Biochemical Engineering

• Study the application of chemical engineering principles in the biotechnology and pharmaceutical industries.
• Design processes for the production of biological products, including pharmaceuticals, biofuels, and enzymes.