BEng (Hons) CHEMICAL AND ENERGY ENGINEERING
Program start date | Application deadline |
2023-09-19 | - |
Program Overview
A new type of energy programme
This course takes a forward-thinking approach to the traditional energy (oil and gas) supplies and delivers concepts that fit with the future of decreased reliance on fossil fuels. We have used the subsurface and energy expertise developed at LSBU to produce a new type of energy undergraduate programme.
The course brings together the essentials of chemical engineering with an added flavour of geoscience, exploration and processing to highlight and develop a deep understanding of the energy mix. It will show how oil and gas techniques can be used to harness geothermal energy, develop concepts of carbon dioxide storage in sub surface environments and inform you on the myriad of renewable energy technologies that are available.
This course will prepare you for a career in which you'll design, be creative, research and test new products - new fuels, imaginary processes or complete systems - and make them commercially viable.
We offer the opportunity for all undergraduate Home/EU students to undertake a work placement, internship or work experience while studying a full-time course starting in September 2022.
Why Chemical Engineering at LSBU?
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Ranked 1st for graduate prospects in London (Sunday Times Good University Guide 2020).
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Ranked 1st for Student Satisfaction amongst London competitors for Chemical Engineering (Complete University Guide 2021).
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Placement opportunities – in your third year you have the option to undertake a placement, giving you valuable experience.
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Ranked 1st for Learning Opportunities amongst London competitors in Chemical, Process and Energy Engineering (National Student Survey 2020)
Program Outline
This course is distinctive as it covers the theory of chemical engineering coupled with computer simulation, laboratory practice and industrial placement that enable graduates to be well equipped with desired skills sought after by employers. It also has the added value of introducing topics that are important for the future energy mixed with a focus on renewables as well as oil and gas.
The course consists of modules with a total credit value of 360 credits which are made up of 14 standard modules of 20 points each and a project module of 40 points (in third year). Each year you need to complete 120 credits.
In the first year, you are introduced to basic engineering principles and design and fundamentals of chemical engineering. The second year focuses on core unit operations such as fluid flow, thermodynamics, chemical reactions, separation processes, process design and simulation and control. In final year, the course trains you in specific areas of sustainable energy, energy technologies, and earth resources of energy. The students apply all the knowledge gained in their previous study into design project covering from raw materials to final desired products.
After two-years study, you are encouraged to opt to having one year industrial placement (sandwich course).
Year 1
This module provides you with an understanding of the chemical industries, their economic significance and the career pathways available to professional engineers in these industries. It also equips you with basic principles of chemical processes such as mass and energy balances.
This module consolidates your knowledge of a broad range of mathematical methods and techniques appropriate for engineering courses, and enables you to apply mathematical methods, tools and notations proficiently in the analysis and solution of engineering problems.
This module consolidates your knowledge and understanding of a broad range of engineering principles such as measurement systems and units, thermal physics and mechanical and electrical principles. The teaching is supported by laboratory experiments.
This module develops your knowledge of engineering concepts such as material science, fluid mechanics and thermodynamics, allowing them to be further developed in future years of study.
The aim of the module is for you to begin your engagement with engineering design and develop your transferable skills by. You will undertake small engineering design projects, learn to use Computer-Aided Design (CAD) software, and develop your Personal Development Planning (PDP).
The module provides you with an understanding of the principles of programming and the use of programming languages. It enables to solve chemical engineering problems using numerical techniques and programming languages such as Matlab software.
Year 2
This module develops your knowledge of advanced engineering mathematics, and the skills which enable you to apply mathematical methods and tools proficiently in the analysis and solution of a variety of engineering problems.
This module provides you with the fundamental principles of thermodynamics (heat, energy and power) and their role in chemical engineering processes and systems.
This module equips you with an understanding on the scientific principles underlying separation processes such as distillation and absorption, and their fundamentals design procedures.
This module imparts your knowledge and understanding in heat, mass and momentum transfer, describing classical and modern theories and techniques. It also provides you with principles of reaction engineering. The teaching is supported by laboratory experiments.
This module is designed to provide you with a good foundation in control systems. The main aim is to provide the tools to mathematically model dynamical systems, predict their time and frequency responses, analyse their stability and understand the role of feedback loops to modify the behaviour of a system.
This module introduces the principles of process design, flowsheeting and flowsheet calculations, process simulation, as well as process economics and concepts such as capital and operating costs. It also introduces heat exchanger design and concept of pinch analysis.
Year 3
Year 4
This module enhances and builds on your knowledge and ability to design a chemical plant with the opportunity to propose new and/or innovative processes. It improves your communication skills and self-esteem through weekly feedback sessions, and your ability to work in a team as well as individually.
The aim of this module is to introduce you geological knowledge in order to understand energy systems from geothermal and fossil fuel sources. This covers knowledge, understanding and practical skills you need to analyse the contribution of such systems for meeting future energy requirements.
This module develops your knowledge about emerging field of renewable power and fuel generation, such as solar, wind, wave/tidal, nuclear power, geo- and solar thermal technologies and biofuels. It also discusses the concept of energy density and its relationship to energy storage such as hydrogen storage, batteries and capacitors.
This module further develops your knowledge of control strategies for complex systems. You will also gain knowledge of fundamentals of compressible fluid flow for engineering systems such as nozzles, fluidised beds, and two-phase flow in a liquid-gas system.
This module is about the sciences behind technologies involved in energy generation and utilisation. It develops a broad overview of energy engineering and the current status of important issues surrounding energy supply and demand.