MSc Biomedical Engineering

1 Years On Campus Masters Program

University of Exeter

Program Overview

 

The MSc Biomedical Engineering at the University of Exeter combines engineering, biology and medical science to help you develop innovative technologies that improve healthcare and patient outcomes. Designed for graduates from engineering, science and other numerate backgrounds, the programme equips you with advanced technical knowledge, practical research experience and specialist skills for careers in the rapidly growing biomedical engineering sector.

Curriculum Structure

Year 1

During the year, you will develop a strong understanding of how engineering principles are applied to healthcare through a combination of core and optional modules. You'll study subjects such as Musculoskeletal Biomechanics, Biosensors and Wearables, and The Biophysics of Cells and Tissues, gaining insight into the design and application of medical technologies for diagnosis, treatment and rehabilitation.

As the programme progresses, you'll strengthen your technical and research abilities through Advanced Finite Element Analysis and Research Ethics and Methodology, before completing an independent MSc Dissertation focused on a real biomedical engineering challenge. You can also tailor your studies with optional modules such as Additive Manufacturing, Data-Centric Engineering, or AI and Data Science Methods for Life and Health Sciences, allowing you to specialise in areas that match your career ambitions.

Focus Areas

Biomedical engineering, musculoskeletal biomechanics, biosensors and wearable technologies, orthopaedics and ageing, biophysics of cells and tissues, finite element analysis, healthcare technologies, biomedical research, additive manufacturing, artificial intelligence for health, data-centric engineering, mathematical modelling in biology and medicine.

Learning Outcomes

Apply advanced engineering principles to healthcare challenges, analyse biomechanical systems, design and evaluate medical technologies, use computational modelling and finite element analysis, understand biomedical research methods and ethics, develop innovative healthcare solutions, conduct independent research, communicate technical findings effectively, solve complex interdisciplinary engineering problems, prepare for professional practice or further research.

Professional Alignment (Accreditation)

The programme has been developed in collaboration with industry and informed by professional engineering bodies to ensure its content reflects current healthcare and engineering needs. The University intends to seek professional accreditation for the programme as it becomes established.

Reputation (Employability Rankings)

The University of Exeter is ranked among the world's leading universities in the QS World University Rankings 2026. Students benefit from research-led teaching, strong links with industry and healthcare partners, and dedicated careers support, helping graduates build successful careers in biomedical engineering, medical technology, research and related industries.

Experiential Learning (Research, Projects, Internships etc.)

The MSc Biomedical Engineering at the University of Exeter is designed to give you practical experience alongside advanced academic learning. Throughout the programme, you'll apply engineering principles to real healthcare challenges through research projects, computer simulations, laboratory work and an independent dissertation. You'll learn in a multidisciplinary environment, working with specialist equipment and industry-standard technologies while benefiting from the University's world-class engineering and biomedical research facilities.

You'll develop hands-on skills through a range of practical experiences, including:

  • Build practical experience through computer simulations, engineering project work, case studies and an independent MSc dissertation focused on a real biomedical engineering challenge.

  • Learn from research-active academics and industry professionals, gaining insight into the latest advances in biomedical engineering and healthcare technology.

  • Access the Biomedical Engineering Research Laboratory, featuring tissue preparation and storage facilities, biological safety cabinets, CO₂ incubators, autoclaves and specialist biomedical testing equipment.

  • Use advanced research equipment including Instron ElectroPuls dynamic testing systems, Qualisys motion capture technology, fibre-optic pressure transducers and ADPM Opal wearable sensors for biomechanics and medical device research.

  • Gain experience with industry-standard software such as Abaqus and ScanIP+FE for finite element analysis, computational modelling and medical image processing.

  • Complete an independent research dissertation, allowing you to investigate a real biomedical engineering problem while developing advanced research and analytical skills.

  • Study in a collaborative environment that brings together expertise from Engineering, Physics and Astronomy, Mathematics, and Public Health and Sports Sciences.

  • Benefit from the University's wider engineering facilities, including imaging suites, electronics laboratories, fabrication laboratories, materials laboratories and specialist engineering research spaces.

  • Explore opportunities within leading research centres, including the Living Systems Institute, NIHR Exeter Biomedical Research Centre, and the University's advanced bioimaging facilities.

  • Receive dedicated academic and professional support through a Personal Tutor, a Postgraduate Tutor, and mentoring from graduates working across engineering and healthcare industries.

Progression & Future Opportunities

The MSc Biomedical Engineering at the University of Exeter prepares graduates for exciting careers in healthcare technology by combining engineering knowledge, medical science and practical research skills. With expertise in areas such as biomedical design, biomechanics, wearable technologies and computational modelling, graduates can pursue opportunities in medical technology companies, research organisations, healthcare innovation and engineering industries. Typical career roles include Biomedical Engineer, Medical Device Engineer, Healthcare Technology Specialist, Research and Development Engineer, and Clinical Engineer.

The programme supports your transition from postgraduate study into professional employment through a range of career development opportunities:

  • Access support from the University of Exeter Career Zone, which provides career guidance, one-to-one advice, employability workshops, employer events, CV support and resources to help students successfully move into professional roles.

  • Benefit from Exeter’s strong reputation with employers, as the university has established connections with a wide range of organisations and provides opportunities for students to engage with industry through careers events and employer activities.

  • Develop industry-relevant skills through a programme designed with input from industry and focused on addressing real-world healthcare challenges, particularly in medical technology and biomedical innovation.

  • Build valuable expertise in engineering design, research methods, data analysis and problem-solving, preparing you for roles across biomedical engineering, healthcare technology, consultancy, research and related sectors.

  • Receive guidance from academic staff through personal tutoring and postgraduate support, helping you understand career pathways and develop the professional skills needed for future success.

  • Benefit from the long-term value of professional recognition, as the programme has been developed in consultation with industry and relevant professional bodies, with accreditation from appropriate engineering organisations intended as the programme progresses.

Further Academic Progression:
After completing the MSc Biomedical Engineering, graduates can continue their studies through a PhD or doctoral research programme in areas such as biomedical engineering, biomechanics, biomaterials, medical devices, healthcare technologies or related engineering disciplines. The research experience gained through the MSc dissertation provides strong preparation for students who wish to pursue advanced research careers in universities, specialist research institutes or the medical technology sector.

Program Key Stats

£30,600
£14,300
Sept Intake : 11th Sep


68 %

Eligibility Criteria

2.6

NA
NA
NA
6.5
90
2:2
NA
NA
70

Additional Information & Requirements

Country Requirements

Career Options

  • Biomedical Engineer
  • Medical Device Engineer
  • Biomedical Researcher
  • Research and Development Engineer
  • Healthcare Technology Specialist
  • Clinical Engineer
  • Biomechanics Engineer
  • Medical Imaging Engineer
  • Biomaterials Engineer
  • Rehabilitation Engineering Specialist
  • Biomedical Design Engineer

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