BEng Medical Engineering

Laboratory and Design-Build-Test Projects

From the outset, students engage in design-build-test projects during the first and second years. These projects involve:

• Designing and prototyping medical devices or assistive technologies.

• Testing and refining these prototypes to meet specific user needs.

• These activities are conducted in state-of-the-art facilities, including mechanical, electronics, biomechanics, and bioengineering laboratories, as well as patient testing and human factors labs. 

  Industrial Placement Year (Optional)

• Students have the option to undertake an additional year-long paid industrial placement between the second and third years. This placement offers:

• Real-world experience in an engineering organization.

• Support from a placement tutor throughout the year.

• Reduced tuition fees during the placement year.

• Recognition of the placement on the degree certificate.

• This opportunity enhances employability by providing practical experience and industry connections. 

  Individual Final-Year Project

• In the third year, students undertake an individual project that allows them to:

• Explore a specific area of medical engineering in depth.

• Develop a prototype or conduct research under the guidance of academic staff.

• Apply accumulated knowledge to solve real-world problems.

• This project serves as a culmination of the skills and knowledge acquired throughout the course.

  Industry Engagement

• The programme fosters strong industry connections through:

• Guest lectures from professionals in the field.

• Industrial visits to healthcare and engineering organizations.

• Collaborative projects with industry partners.

• These interactions provide insights into current industry practices and emerging technologies. 

  Access to Cutting-Edge Facilities

• Students benefit from access to advanced facilities, including:

• Mechanical and electronic labs equipped with modern tools.

• Biomechanics and bioengineering labs for specialized research.

• Human factors facilities to study user interaction with medical devices.

• These resources support hands-on learning and innovative project development.

  Career Preparation and Commercialization Insights

• The course emphasizes understanding the clinical, safety, and ethical implications of biomedical engineering work. Students learn about:

• Regulatory requirements for medical devices.

• Pathways to commercialization, including bringing a product from concept to market.

• This knowledge prepares graduates for the multifaceted challenges of the medical engineering industry.

  International Opportunities

• While the primary focus is on the UK healthcare system, the university's global outlook and diverse student body provide:

• Exposure to international perspectives in medical engineering.

• Opportunities for global collaboration through research projects and exchange programmes.

• Pursue a career in medical device development, clinical engineering, biomechanics, biomaterials, rehabilitation engineering, or pharmaceutical technology.

• Opportunities in industries such as healthcare, medical imaging, diagnostics, prosthetics, and wearable health technologies.

• Further academic study through taught master's degrees (e.g., MSc Biomedical Engineering, MSc Medical Physics), research degrees (MPhil/PhD), or medical school entry for qualified candidates.

• Potential to register as a Chartered Engineer (CEng) with an accredited MEng or appropriate combination of BEng and MSc, enhancing professional standing.

• Entrepreneurial opportunities in health-tech startups or innovation hubs focused on biomedical solutions.

• Average earnings: £30,000, 15 months after the course 

• 85% of the students go on to work and/or study