ICTQual Level 5 Diploma in Chemical Engineering 240 Credits – Two Years

The future progression of the ICTQual Level 5 Diploma in Chemical Engineering 240 Credits – Two Years can lead learners towards several pathways, depending on their career goals and aspirations in the field of law and related sectors. Here are some potential avenues of progression:

Year 1 (120 Credits)

Semester 1

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.
2. 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.
3. 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.
4. 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.
5. 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.
6. Fluid Mechanics
   • Understand the behavior of fluids and their flow characteristics in chemical engineering systems.
   • Solve fluid flow problems using relevant equations and principles, including pressure drop, pump design, and flow rate calculations.

Semester 2

1. 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.
2. 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.
3. 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.
4. 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.
5. 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.
6. Technical Communication and Report Writing
   • Develop technical writing skills for preparing reports, research papers, and documentation related to chemical engineering.
   • Communicate complex chemical engineering concepts clearly and concisely, both in written and oral formats.

Year 2 (120 Credits)

Semester 1

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.
2. 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.
3. 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.
4. 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.
5. 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.
6. Industrial Health and Safety Management
   • Develop an understanding of industrial health and safety practices and their application in chemical engineering environments.
   • Apply risk management strategies, including hazard analysis, emergency response, and safety audits, to chemical engineering projects.

Semester 2

1. 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.
2. 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.
3. 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.
4. 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.
5. 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.
6. Research Project in Chemical Engineering
   • Conduct independent research on a chemical engineering topic, demonstrating the ability to apply academic knowledge to solve real-world problems.
   • Present findings in a research report, showcasing problem-solving, critical thinking, and technical communication skills.