Bachelor of Engineering (Biomedical) (Honours) / Master of Engineering (Biomedical)

5 Years On Campus Bachelors Program

Flinders University

Program Overview

This integrated double degree combines undergraduate engineering foundations with advanced master’s-level biomedical engineering training, preparing you to design and develop medical technologies that improve diagnosis, treatment, and patient care. It suits students who are strong in mathematics and science and want a direct pathway into high-level biomedical engineering and research careers.

Curriculum Structure

Year 1:
You will begin with core engineering foundations that build your skills in mathematics, physics, and introductory engineering principles. Alongside this, you are introduced to biomedical engineering concepts such as human biology fundamentals and basic engineering design thinking, helping you understand how engineering applies to healthcare.

Year 2:
This year develops your core engineering knowledge with a stronger focus on biomedical applications. You will study areas such as engineering mechanics, electrical principles for biomedical systems, and introductory biomechanics, building the technical base needed for medical technology development.

Year 3:
At this stage, you move into more specialised biomedical engineering study with applied learning in areas like medical device principles, biomedical instrumentation concepts, and systems modelling. You also begin working on more complex design tasks that reflect real healthcare engineering challenges.

Year 4:
The honours year focuses on advanced engineering theory, research preparation, and specialised biomedical engineering electives. You will typically complete a major research or design project, applying engineering methods to solve real-world medical and healthcare problems.

Year 5:
The master’s year develops advanced professional and technical expertise in biomedical engineering, combining coursework with higher-level project or research work. You will focus on industry-relevant biomedical systems, innovation in medical technology, and professional engineering practice.

Focus Areas

Biomedical engineering, medical device design, biomechanics, electrical and electronic systems, healthcare technology innovation, engineering research, and systems modelling.

Learning Outcomes

Graduates develop advanced engineering and biomedical expertise to design, analyse, and improve medical technologies used in healthcare settings. You will be prepared for professional engineering roles in biomedical industries, research and development, and healthcare technology innovation.

Professional Alignment (Accreditation)

The program is designed to align with professional engineering accreditation standards in Australia, supporting recognition as a qualified biomedical engineer through Engineers Australia pathways upon completion.

Reputation (Employability Rankings)

Flinders University is recognised globally for research excellence and strong graduate outcomes, with rankings in QS World University Rankings and Times Higher Education reflecting its industry-connected engineering programs.

Experiential Learning (Research, Projects, Internships etc.)

At Flinders University, you’ll learn biomedical engineering through a strong mix of hands-on laboratory training, industry-connected projects, and research-informed teaching. Much of your study is based at Flinders’ modern engineering and innovation environments, where you work on real medical technology challenges alongside researchers and industry partners. The program is designed to build practical engineering capability through experimentation, design, and applied problem-solving in healthcare contexts:

Tonsley Innovation District engineering facilities : Purpose-built engineering and technology spaces where students work on biomedical design, prototyping, and applied engineering projects in real-world environments.
Medical Device Research Institute (MDRI) : Exposure to advanced biomedical engineering research focused on developing and improving medical technologies and healthcare solutions.
Flinders Health and Medical Research Institute (FHMRI) : Research-connected learning environment supporting collaboration between engineering, health science, and medical research disciplines.
Biomedical engineering laboratories : Practical sessions involving experimentation with medical systems, biomechanics, and engineering-based healthcare solutions.
Industry-linked project learning (WIL) : Opportunities to work on real engineering problems in collaboration with healthcare, biomedical, and technology organisations.
Capstone design and research project : Major final-year project where students design, test, and develop a biomedical engineering solution to a real clinical or industry problem.
Collaborative engineering team projects : Group-based design work that develops communication, technical, and professional engineering teamwork skills.
Library and digital research resources : Access to engineering databases, scientific journals, and research materials supporting advanced biomedical engineering study.

Progression & Future Opportunities

Graduates from Flinders University are prepared for advanced roles in biomedical engineering, healthcare technology development, and medical innovation, where engineering meets medicine to improve patient care. You could work as a biomedical engineer, medical device designer, clinical engineering specialist, or research and development engineer in hospitals, biotech companies, and healthcare technology firms.

Career Support & Industry Outcomes:

Flinders Careers and Employability Service: Provides tailored career planning, resume and interview support, and direct access to engineering and healthcare industry employers.
Work Integrated Learning (WIL): Offers structured industry experience through placements and project-based learning with engineering and health sector partners.
Tonsley Innovation District partnerships: Strong industry connections with engineering, defence, health technology, and research organisations based in South Australia’s innovation hub.
Medical Device Research Institute (MDRI) links: Exposure to real biomedical research and innovation projects that enhance employability in medical technology sectors.
Graduate outcomes and earning potential: Engineering graduates in Australia typically experience strong employment prospects and competitive salaries, particularly in biomedical and healthcare technology fields.
Engineers Australia accreditation pathway: The program supports professional recognition, ensuring graduates meet national and international engineering standards.

Further Academic Progression:
After graduation, students can pursue Master of Engineering (Research), PhD programs in biomedical engineering, or specialised postgraduate study in medical technology, health systems engineering, or biotechnology innovation. This pathway also supports progression into advanced research, hospital engineering leadership, and medical device development roles.