What You Will Gain

Year 1 (120 Credits)

Semester 1

Introduction to Chemical Engineering Principles

• Demonstrate an understanding of the role and scope of chemical engineering.
• Identify and explain the key concepts such as material and energy balances, unit operations, and process design.

Engineering Mathematics and Statistics

• Apply mathematical methods such as calculus, differential equations, and statistics to solve chemical engineering problems.
• Use statistical tools to analyze experimental data and model chemical processes.

Material and Energy Balances

• Perform material and energy balance calculations for simple and complex chemical processes.
• Apply the principles of conservation of mass and energy to process systems.

Thermodynamics

• Understand and apply the fundamental laws of thermodynamics in chemical engineering processes.
• Analyze thermodynamic cycles, phase equilibria, and chemical equilibrium for real-world applications.

Chemistry for Engineers

• Apply basic chemical principles such as stoichiometry, chemical reactions, and equilibrium to chemical engineering problems.
• Understand the role of chemistry in industrial applications and process design.

Fluid Mechanics

1. Understand the behavior of fluids and their flow characteristics in chemical engineering systems.
2. Solve fluid flow problems using relevant equations and principles, including pressure drop, pump design, and flow rate calculations.

Semester 2

Heat Transfer Processes

• Understand the principles of heat transfer, including conduction, convection, and radiation.
• Apply heat transfer principles to the design of heat exchangers and other thermal systems in chemical processes.

Chemical Process Industries

• Gain knowledge of various chemical industries and the processes involved in manufacturing chemicals, pharmaceuticals, and petrochemicals.
• Understand the applications of chemical engineering in industrial settings and the challenges faced by the industry.

Mechanical Properties of Materials

• Study the mechanical properties of materials commonly used in chemical engineering, including strength, elasticity, and plasticity.
• Understand material selection and failure analysis in the context of chemical engineering applications.

Laboratory Skills and Safety

• Develop essential laboratory skills, including safe handling of chemicals, proper use of laboratory equipment, and accurate data collection.
• Understand and adhere to laboratory safety protocols and risk assessment practices.

Environmental Science and Sustainability

• Understand the environmental impact of chemical engineering processes, including pollution control and waste management.
• Develop sustainable practices for reducing environmental harm and improving resource efficiency in chemical engineering operations.

Technical Communication and Report Writing

1. Develop technical writing skills for preparing reports, research papers, and documentation related to chemical engineering.
2. Communicate complex chemical engineering concepts clearly and concisely, both in written and oral formats.

Year 2 (120 Credits)

Semester 1

Advanced Thermodynamics

• Apply advanced thermodynamics concepts, such as exergy, enthalpy, and entropy, to real-world chemical systems.
• Analyze and solve complex thermodynamic problems, including non-ideal systems and multi-component mixtures.

Advanced Fluid Mechanics

• Explore advanced concepts in fluid mechanics, including turbulent flow, non-Newtonian fluids, and multiphase flow.
• Apply advanced fluid dynamics principles to the design and optimization of chemical processing systems.

Process Control and Instrumentation

• Understand the principles of process control systems and instrumentation.
• Design and implement control systems to regulate chemical processes and improve system performance.

Chemical Reaction Engineering

• Study the kinetics of chemical reactions and the design of reactors.
• Apply reaction engineering principles to the design and operation of chemical reactors, including batch, continuous, and catalytic reactors.

Separation Processes

• Understand the principles and design of advanced separation processes such as distillation, filtration, and membrane-based separations.
• Analyze and optimize separation systems for industrial applications.

Industrial Health and Safety Management

1. Develop an understanding of industrial health and safety practices and their application in chemical engineering environments.
2. Apply risk management strategies, including hazard analysis, emergency response, and safety audits, to chemical engineering projects.

Semester 2

Chemical Process Design and Simulation

• Apply principles of process design to create chemical engineering flowsheets and process diagrams.
• Use process simulation software to model, analyze, and optimize chemical processes.

Advanced Separation Processes

• Explore advanced techniques for separation processes, including membrane filtration, chromatography, and cryogenic distillation.
• Design and optimize advanced separation systems to improve efficiency and reduce energy consumption.

Energy Systems and Renewable Technologies

• Understand the role of chemical engineering in energy production, including renewable energy systems like solar, wind, and bioenergy.
• Analyze and design energy-efficient processes to optimize resource use and reduce environmental impact.

Advanced Chemical Reaction Engineering

• Study more complex reaction systems, including heterogeneous catalysis, enzyme catalysis, and bioengineering reactions.
• Apply advanced reaction engineering techniques to optimize reactor design and improve process efficiency.

Industrial Project Management

• Develop project management skills for planning, budgeting, and overseeing chemical engineering projects.
• Learn to manage project teams, resources, timelines, and risks, ensuring the successful delivery of projects within scope and budget.

Research Project in Chemical Engineering

1. Conduct independent research on a chemical engineering topic, demonstrating the ability to apply academic knowledge to solve real-world problems.
2. Present findings in a research report, showcasing problem-solving, critical thinking, and technical communication skills.