What you'll study
The course consists of 120 credits per year. Most modules are 20 credits, meaning you’ll study six modules each year. Some longer modules, such as a dissertation, are worth more (e.g. 40 credits). In these cases, you’ll study fewer modules - but the number of credits will always add up to 120.
First year modules
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Compulsory
Mathematical Tools and Concepts
This module delivers essential core mathematics knowledge, including polynomial functions, trigonometric functions, series, vectors, matrices and complex numbers.
Fundamentals of Medical Engineering
Explore key medical engineering concepts such as the principles of forces, moments, and basic stress analysis concepts. You'll also learn human anatomy and physiology.
Introduction to Design and Mechanical Engineering Practice
Learn the principles of mechanical engineering and put them into practice. Cover the key topics of computer aided design (CAD), experimental work/laboratory exercises, manufacturing safety, processes and practice.
Mathematics and Engineering Thermodynamics
Develop mathematical skills in calculus and explore fundamental concepts in engineering thermodynamics, including heat engine cycles and their applications.
Mechanical Engineering Science
Analyse and determine equilibrium conditions and the state of stress for defined mechanical systems, and describe processing routes and factors that influence the properties of engineering materials.
Engineering Global Challenge 1
Develop and enhance a range of professional skills as a basis for professional registration as an Incorporated or Chartered Engineer.
Second year modules
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Compulsory
Physiological Measurement and Maths
This module introduces you to physiological measurements in the context of medical engineering, including the devices used in clinical practice.
Mechanical Engineering Design
An opportunity to apply engineering design tools and techniques to solve real-world engineering problems. This module will take you through the product design process right from initial design specification, though to manufacturing planning and prescription.
NHS Medical Engineering in Practice and Stress Analysis
Gain first-hand experience of medical engineering in the healthcare setting by spending time in a number of different departments in local NHS hospitals.
Mathematics and Fluid Mechanics for Mechanical Engineers
Gain knowledge and hands-on experience of using a range of mathematical functions and techniques to solve engineering problems.
Materials and Manufacture
Explore the reasons engineering structures can fail, sometimes unexpectedly, through fatigue and fast fracture, corrosion and creep, as well as processes to reduce such problems.
Engineering Global Challenge 2
Develop and enhance a range of professional skills as a basis for professional registration as an Incorporated or Chartered Engineer.
Placement year modules
Your placement is your opportunity to get some real-world work experience under your belt.
Just like in the real world, you’ll be responsible for finding and applying for opportunities, with the added benefit of help and support from university services such as the Careers and Employability service based in Student Central.
Final year modules
Your final year allows you to put your knowledge into practice, undertaking a major medical engineering project. This involves working at a professional level, often in conjunction with clinicians from local hospitals or medical companies.
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Core
Individual Project (Mechanical Engineering)
Apply and extend your engineering knowledge and professional skills by working on a substantial individual project throughout the academic year.
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Compulsory
Stress Analysis and Applications of Finite Element Analysis
Examine advanced theories and techniques to solve stress-analysis problems. The theory and application of finite element analysis is also covered using industry-standard software.
Prosthetics, Orthotics and Assistive Technologies
Study the principles and biomechanics behind the design of prosthetics, orthotics and assistive devices.
Biomaterials and Orthopaedic Devices
Examine the key structural biological materials in the human body. And learn about the biomedical materials available to medical engineers for implantation in the body.
Artificial Organs and CADCAM for Medical Engineering
Explore devices for the replacement or augmentation of bodily functions and their application; the principles behind their design; and the processes and technology used to manufacture these devices.
All modules are subject to availability and this list may change at any time.