Bachelor of Science(Biomedical Engineering Systems)

3 Years On Campus Bachelors Program

University of Melbourne

Program Overview

The University of Melbourne Bachelor of Science (Biomedical Engineering Systems) is designed for students who want to apply engineering principles to solve complex problems in human health, medical devices, and biological systems. This program suits students interested in innovation at the intersection of science, engineering, and medicine, preparing them for careers in biomedical technology, healthcare innovation, and further specialised study.

Curriculum Structure

Year One

In the first year, students establish a strong foundation in science and engineering through core subjects such as Principles of Biology, Chemistry for Engineering Systems, and Mathematics for Biomedicine. These subjects introduce biological systems, chemical processes, and quantitative methods used in biomedical engineering, while also developing analytical and problem-solving skills. Students begin learning how engineering concepts apply to human health and medical systems.

Year Two

In the second year, students progress into more specialised biomedical engineering content through subjects such as Biomechanics, Human Physiology for Engineers, and Electrical Systems in Biomedicine. This year focuses on understanding how mechanical and electrical principles interact with biological systems, including movement, organ function, and medical instrumentation. Students also develop technical modelling, simulation, and laboratory skills relevant to biomedical engineering applications.

Year Three

In the final year, students undertake advanced study in biomedical systems and engineering design through subjects such as Biomedical Signal Processing, Medical Device Design, and the Biomedical Engineering Systems Project. This year emphasises real-world engineering applications, where students design, analyse, and evaluate medical technologies and healthcare solutions. The capstone project allows students to apply engineering knowledge to solve complex biomedical challenges.

Focus Areas

Biomedical engineering, medical device design, biomechanics, human physiology, biomedical systems, signal processing, healthcare technology, engineering mathematics, biomedical innovation.

Learning Outcomes

Graduates develop strong engineering design skills, analytical thinking, problem-solving ability, and an understanding of biological and medical systems. Students also gain experience in modelling biomedical systems, designing medical technologies, interpreting physiological data, and applying engineering solutions to healthcare challenges.

Professional Alignment (Accreditation)

The program aligns with the growing global demand for biomedical engineers in healthcare technology, medical device development, and research industries. It provides a strong foundation for further professional study and technical roles in biomedical and engineering sectors.

Reputation (Employability Rankings)

The University of Melbourne is consistently ranked among Australia’s leading universities and is internationally recognised for excellence in science, engineering, and medical research education. Its strong research environment and industry connections support high graduate employability in STEM and healthcare innovation fields.

Experiential Learning (Research, Projects, Internships etc.)

Students in the University of Melbourne Bachelor of Science (Biomedical Engineering Systems) gain hands-on experience through laboratory-based learning, engineering design studios, and project-based collaboration that reflects real biomedical and healthcare innovation environments. The program is strongly practice-oriented, allowing students to work with engineering modelling tools, biomedical data systems, and design frameworks used in medical device development and healthcare technology. Through practical workshops, capstone projects, and interdisciplinary learning, students build technical engineering skills alongside real-world problem-solving capabilities in biomedical contexts:

Biomedical Engineering Design Projects enable students to work on real-world medical and healthcare technology challenges through structured engineering solutions.
Engineering Laboratories and Practical Workshops provide hands-on training in biomechanics, biomedical systems, and physiological modelling.
Biomedical Signal Processing and Systems Labs allow students to analyse physiological data and work with engineering software used in medical applications.
Medical Device Design Studios support innovation in healthcare technology, prototyping, and engineering design development.
Group-Based Engineering Projects develop teamwork, communication, and collaborative problem-solving skills in multidisciplinary settings.
Advanced Computational and Modelling Tools are used for simulation, analysis, and design of biomedical systems and engineering solutions.
Interdisciplinary Learning with Science and Engineering Faculties connects students to broader research and innovation environments across the university.
Capstone Engineering Project gives students the opportunity to design, develop, and evaluate a major biomedical engineering solution.
Research-Informed Teaching Environment ensures students learn from active researchers in biomedical engineering and related fields.
Library and Digital Research Resources (University of Melbourne) provide access to scientific journals, engineering databases, and technical literature.
Innovation and Research Ecosystem Exposure connects students with cutting-edge developments in biomedical technology and engineering research.
Academic Mentoring and Industry-Linked Learning supports students in developing professional engineering competencies aligned with healthcare technology needs.

Progression & Future Opportunities

Graduates of the University of Melbourne Bachelor of Science (Biomedical Engineering Systems) are prepared for careers that combine engineering innovation with healthcare and medical technology development. They are well positioned for roles in biomedical device design, healthcare systems engineering, and research-driven innovation within the medical technology and biotechnology sectors. Graduates may pursue careers as Biomedical Engineer, Medical Device Design Engineer, Healthcare Technology Analyst, or Research and Development Engineer:

University of Melbourne Careers & Employability Support provides tailored career coaching, résumé and interview preparation, employer networking events, and access to internship and graduate pathways.
Strong Industry Engagement in Engineering and Health connects students with biomedical technology companies, healthcare organisations, and research institutes involved in innovation and device development.
Work-Integrated Learning and Project-Based Education strengthens employability through real-world engineering design challenges and capstone project experience.
Research Excellence Environment at the University of Melbourne supports exposure to cutting-edge biomedical engineering research and innovation.
Global Demand for Biomedical Engineers supports strong career opportunities in medical technology companies, hospitals, research organisations, and healthcare innovation sectors.
Advanced Technical and Engineering Skill Development ensures graduates are capable of working with biomedical systems, data analysis, and medical device design technologies.
Industry-Recognised STEM Qualification provides long-term value in engineering, healthcare technology, and scientific innovation fields.
Graduate Outcomes reflect the University of Melbourne’s strong reputation for producing highly employable STEM graduates with advanced technical and research capabilities.

Further Academic Progression:

After completing this degree, students may continue into Honours in Biomedical Engineering, Master of Biomedical Engineering, Master of Engineering (Biomedical), or related postgraduate engineering and health technology programs. Graduates may also pursue PhD research pathways in biomedical systems, medical device innovation, bioengineering, or healthcare technology development, depending on their career goals.