Our MSc is an advanced programme spanning a wide range of topics, providing you with an in-depth introduction to the field of biomedical engineering.
Running for over 50 years, our MSc is one of the longest-established biomedical engineering degree programmes in the world and has been highlighted for an ‘excellent’ grade in the UK Teaching Quality Assessment scheme as well as being highly commended by external examiners for the breadth and depth of material taught.
Biomedical engineering is one of the most important growth areas in the engineering sector in the first half of the twenty-first century. Internationally, the rise in demand for biomedical engineers is, and will remain, greater than in any other engineering discipline.
Our course will suit you if you want to gain the skill-set and experience required to embark on a future career within clinical engineering, the medical industry or healthcare science and research. You will benefit from a thorough taught knowledge base, covering areas such as biomaterials, biomechanics, movement analysis, human biology, instrumentation, micro-engineering, physiological measurement, medical implants, rehabilitation engineering and safety.
Why not read profiles of past and present students studying our subject, including Alex Bates, who took his MSc in Biomedical Engineering?
On this MSc there are four semester 1 modules which are taught over ten weeks. In semester 2, you will undertake another four modules, each taught intensively over two weeks. You will also complete a Research Project which spans over the two semesters and the summer period. If you are studying on a part-time basis, you will take two modules per semester over the two years, and complete your Research Project in the second year.
Modules (all compulsory):
This module will give you a solid foundation in human biology, with particular reference to the musculoskeletal system, the nervous system and the senses, the cardiovascular and respiratory systems, the urinary system, and skin and superficial soft tissues.
This module will provide core knowledge in instrumentation for biomedical engineering applications, introducing key concepts and techniques through applied tutorial and laboratory sessions. The module covers basic concepts including analogue and digital circuits, measurement equipment, amplifiers, filters and signal acquisition, and is underpinned by applied medical engineering examples. The material will complement that taught in other modules.
You will be taught the principles from which to quantify the load, strength, failure and equilibrium performance of musculoskeletal structures. You will also be introduced to the biomechanical principles from which to quantify behaviour of the ‘fluid systems’ within the body.
This module will prepare you for a career as a professional biomedical engineer, studying subjects such as the scope and range of biomedical engineering, professional and regulatory bodies, professional development, clinical and research governance, and ethics. Additionally, students will learn about research methods, statistics, publications, funding and other skills required of a biomedical engineering researcher.
The module introduces the student to the application of modern computational methods in biomedical research. Within the context of real-life problems encountered in biomedical engineering practice, the student will be introduced to and provided with practical experience in using:
The module provides students with an up-to-date knowledge base on the assessment of human movement with particular focus on clinical gait analysis, including an in-depth evaluation of the state-of-the-art measurement and analysis tools currently used in clinical and performance management.
This module covers the principles of the design and use of medical implants, orthopaedic implants in particular; related prosthetic technology and biomaterials such as metals, ceramics and polymers and composites with specific reference to biomedical applications.
This module describes the use of equipment (such as electroencephalography, electrocardiography, and imaging methods among others) to measure important information about the physiological state of a patient. The module also provide the student with an up-to-date knowledge base on the theory and professional practice of engineering applied to the rehabilitation of people with sensory and neurological disability.
This module is a supervised independent study undertaken by the student to demonstrate the ability to conduct research at MSc level on a specific topic in biomedical engineering. The student will apply theoretical knowledge and practical techniques gained through the taught modules, as well as additional knowledge and skills acquired independently for the purpose of conducting the research.
The Biomedical Engineering MSc has accreditation from the Institute of Physics and Engineering in Medicine (IPEM).
A minimum 2.2 honours degree (or overseas equivalent) in engineering, physical sciences, medicine, or life/medical/paramedical sciences. Other related paramedical professional qualifications may be considered. Occasionally students may be admitted with a lesser academic qualification, if they can prove several years’ relevant industrial (or Health Service) experience.
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IELTS minimum overall: 6.5
IELTS minimum by component: 6.0
We offer intensive English language pre-sessional courses, designed to take you to the level of English ability and skill required for your studies here.
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Please note these fees are for the academic year 2015/16 only. All fees are subject to annual review.
Thinking of continuing your education at Surrey? As an alumni of Surrey you could be eligible for a 10% discount on our Taught Masters programme fees.For more details
The University of Surrey has been ranked sixth in this year’s Times Higher Education Student Experience Survey.
… and MSc Space Technology and Planetary Exploration (now MSc Space Engineering).
“I feel that Surrey’s MSc in Biomedical Engineering not only gave me a broad knowledge-base of the subject, but also an understanding of a career in academia”
Why not discover more about engineering and its importance today?
Professor Yang Gao has helped to identify some of Europe’s most promising young engineers in a competition challenging teenagers to design a Formula 1 car for the year 2040.
“I enjoy discovering new things.”
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In the latest financial year, which commenced 1 August 2012, we received notification of a total of €23m European Commission funding across 49 research projects. Research councils and other funding bodies from the UK, Europe and around the world trust us to deliver exceptional research.
The Biomedical Engineering programme has been running for nearly 50 years, making it one of the longest established biomedical engineering degree programmes in the world. It was highlighted for the award of an ‘Excellent’ grade in the UK Teaching Quality Assessment scheme and is highly commended by our external examiners for the breadth and depth of material taught.
“Although ceramic armour has a great number of advantages over other protection methods, the weakness in bonding the ceramic plates to the backing has been a problem since this type of armour was first used. The project has developed a method of testing the adhesive that will considerably strengthen the effectiveness of ceramic armour plating.”
In 2009, the University of Surrey was awarded a £12m grant from the Engineering & Physical Sciences Research Council (EPSRC) to launch two prestigious Industrial Doctorate Centres.
Surrey is home to two of only nineteen IDCs in the UK: ‘Micro-and Nano-Materials and Technologies’ (MiNMat) and ‘Sustainability for Engineering & Energy Systems’ (SEES).
Both IDCs provide a supportive and engaging environment for students to carry out challenging Engineering Doctorate (EngD) research projects The IDCs also provide a framework for high quality collaboration between academics and industry sponsors.
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