BEng Biomedical Engineering

3 Years On Campus Bachelors Program

University of Surrey

Program Overview

The BEng Biomedical Engineering program focuses on applying engineering principles to healthcare and medical technologies. Students develop skills to design, develop, and maintain medical devices and systems, preparing them for careers in biomedical engineering, medical device design, or healthcare technology industries.

Curriculum Structure

Year 1: Foundations of Biomedical Engineering
Students learn the fundamental engineering and biological principles. Core modules include Mathematics for Engineers, Mechanics and Materials, Electrical and Electronic Principles, and Biology for Engineers. Practical sessions develop problem-solving and technical skills.

Year 2: Advanced Biomedical Engineering Topics
The second year introduces specialized topics such as Biomechanics, Biomedical Instrumentation, Signals and Systems, and Materials for Medical Devices. Laboratory work and projects apply engineering knowledge to biomedical applications.

Year 3: Design and Application in Biomedical Engineering
The final year focuses on real-world biomedical engineering problems. Students undertake a major individual project and can choose electives such as Prosthetics and Orthotics, Medical Imaging, or Biomaterials. The year emphasizes design, innovation, and professional competence.

Focus Areas
Biomechanics, biomedical instrumentation, medical devices, signals and systems, materials science for medical applications, prosthetics, and medical imaging.

Learning Outcomes
Graduates will have expertise in biomedical engineering principles, design and development of medical devices, practical problem-solving skills, and readiness for professional engineering practice.

Professional Alignment (Accreditation)
The program is accredited by the Institution of Engineering and Technology (IET), meeting professional engineering standards.

Reputation (Employability & Graduate Outcomes)
Graduates are prepared for careers in biomedical engineering, medical device design, rehabilitation engineering, and medical imaging. Strong industry links and practical training enhance employability.

Experiential Learning (Research, Projects, Internships etc.)

The BEng Biomedical Engineering programme at the University of Surrey combines engineering principles with biological and medical sciences to prepare students for careers in the design and development of medical devices and healthcare technologies.

Experiential Learning Highlights:

  • Hands-On Laboratory Training: Students engage in practical sessions throughout the programme, developing key skills in areas such as biomechanics, biomaterials, and medical device design. These practical experiences are integral to understanding the theoretical concepts taught in lectures.
  • Final-Year Design Project: In the final year, students undertake an individual design project, allowing them to apply their knowledge to real-world biomedical engineering challenges. This project culminates in a prototype and a detailed report, providing valuable experience in product development and engineering design.
  • State-of-the-Art Facilities: Students have access to cutting-edge laboratories and equipment, including a clinical-grade human movement lab, design software, and CNC machine tooling equipment within the Design Centre. These facilities support hands-on learning and innovation in biomedical engineering.
  • Industry Collaboration: The programme benefits from over 50 years of experience in training biomedical engineers, with strong links to industry partners. This provides students with opportunities for internships, placements, and collaborative projects with leading companies in the biomedical sector.

Progression & Future Opportunities

Graduates develop expertise in biomechanics, biomaterials, medical imaging, and rehabilitation engineering, preparing for careers in medical device design, rehabilitation technology, clinical engineering, and biomedical research. Typical roles include Biomedical Engineer, Clinical Engineer, Product Development Engineer, and Research Scientist.


  • University Services That Support Your Career
    • The University offers a dedicated Careers Centre providing support with CV writing, interview preparation, and job search strategies.
    • Students have access to a wide range of resources, including career fairs, employer networking events, and workshops aimed at enhancing employability skills.
    • Opportunities for internships and placements are available, allowing students to gain practical experience and build professional networks.
  • Employment Stats & Salary Figures
    • Approximately 80% of graduates are employed or engaged in further study within 15 months of graduation.
    • The median starting salary for graduates is around £33,000, with a typical range between £30,000 and £36,000.
    • After five years, the median salary increases to approximately £40,000, with a typical range between £35,000 and £45,000.
  • University–Industry Partnerships
    • The University maintains strong links with various healthcare institutions, research organizations, and biotechnology companies, facilitating collaborative projects and research opportunities.
    • Students have access to state-of-the-art facilities and laboratories, supporting cutting-edge research in biomedical engineering.
    • The institution's commitment to research excellence ensures that students are exposed to the latest developments and methodologies in the field.
  • Accreditation & Long-Term Value
    • The program is accredited by the Institution of Engineering and Technology (IET) and the Institute of Physics and Engineering in Medicine (IPEM), ensuring that the curriculum meets high academic and professional standards.
    • Graduates are well-positioned to pursue further studies or professional qualifications, enhancing their career prospects in biomedical engineering and related fields.
    • The comprehensive training and experience gained during the program provide a solid foundation for a successful career in biomedical engineering.
  • Graduation Outcomes
    • Alumni have pursued careers in various sectors, including medical device companies, hospitals, research institutions, and biotechnology firms.
    • Many graduates continue their education by enrolling in MSc programs, PhD research, or professional engineering qualifications, further advancing their expertise and career opportunities.

Further Academic Progression

  • MSc Programs in Biomedical Engineering, Medical Physics, or Clinical Engineering
  • PhD Research in areas such as Biomechanics, Biomaterials, or Medical Imaging
  • Professional Engineering Qualifications through institutions like IET or IPEM

 

Program Key Stats

£27,000 (Annual cost)
£ 29
Sept Intake : 14th Jan


70 %

Eligibility Criteria

ABB
3.2
33
75

1290
28
6.0
80

Additional Information & Requirements

Career Options

  • Medical Device Engineer – design and develop medical equipment for diagnosis and treatment
  • Healthcare Systems Engineer – optimize healthcare technologies and operational systems
  • Clinical Engineer – maintain and manage medical equipment in hospitals
  • Biomedical Research Engineer – conduct research to advance medical engineering knowledge
  • Regulatory Affairs Specialist – ensure medical devices comply with safety and regulatory standards
  • Project Manager in Medical Engineering – lead projects for the development of healthcare technologies
  • Healthcare Consultant – advise hospitals or companies on integrating biomedical technology solutions
  • Product Development Specialist – manage the design and commercialization of medical products
  • Quality Assurance Engineer – oversee testing and standards for medical devices
  • Graduate Entry Medicine Candidate – pursue medical training to become a doctor  

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