Bachelor of Engineering Honours (Biomedical Engineering)

4 Years On Campus Bachelors Program

University of Sydney

Program Overview

The Bachelor of Engineering (Honours) in Biomedical Engineering at the University of Sydney gives you the chance to merge your love for engineering with a passion for life sciences — you learn how to design medical devices, understand human physiology, and work on technologies that improve health and wellbeing. It’s ideal for students who care about innovation, want to help people, and enjoy a mix of engineering, biology and design.

Curriculum Structure
Year 1 gets you grounded in core engineering fundamentals — you’ll study units such as Introduction to Engineering Materials and Engineering Mechanics to build your understanding of structures, mechanics and materials science. You’ll also begin your journey in biomedical engineering with units like Biomedical Engineering 1A, where you explore medical imaging, biomedical devices, biomechanics, nanotechnology and the ethical foundations of bioengineering. This year sets the scene: you grasp what biomedical engineering means and begin forming technical and creative problem-solving habits.

Year 2 expands your biomedical knowledge with courses like Anatomy and Physiology for Engineers, Introduction to Bioelectronics, and Biomedical Physics. Here you start seeing how human biology converges with electronics and engineering — you learn about how devices can interface with the body, how physical principles underpin biomedical systems, and raise your awareness of the human side of healthcare engineering. You also get the opportunity to pick electives to explore your personal interests within the field.

Year 3 lets you dive deeper and begin to specialise: with courses such as Biomedical Engineering 2, Computational Analysis for Biomedical Signals, or Biomaterials, you explore signal processing, biomaterials design, computational modelling, and more. This is where you start designing solutions — maybe a sensor, or a new material, or a computational model — combining engineering techniques with biological insight. Electives and biomedical stream units help you shape your own path.

Year 4 (Honours / Capstone Year) brings everything together through advanced electives — for instance Biomedical Design and Technology, Biomanufacturing, or Tissue Engineering. This is when you design, experiment and maybe even prototype — applying what you’ve learned to real biomedical challenges, perhaps in projects like prosthetic design, tissue scaffolding or medical device modelling. You also get industry exposure, preparing you for the real world or research careers.

Focus Areas
Medical devices design · Bioelectronics & signal processing · Biomaterials & tissue engineering · Biomechanics & computational bioengineering

Learning Outcomes
You will be able to design and analyse biomedical systems, apply engineering principles in medicine, collaborate across disciplines, and develop innovative health-technology solutions with ethical and sustainable thinking.

Professional Alignment (Accreditation)
This degree is accredited by Engineers Australia and recognised internationally through the International Engineering Alliance under the Washington Accord — meaning your qualification is acknowledged worldwide, opening doors globally.

Reputation (Employability Rankings)
The biomedical engineering program at the University of Sydney is part of one of Australia’s most respected engineering faculties — widely regarded among the top globally. This strong reputation translates into excellent employability, research-collaboration and industry-placement opportunities after graduation.

Experiential Learning (Research, Projects, Internships etc.)

If you choose the Bachelor of Engineering (Honours) in Biomedical Engineering at the University of Sydney, you’ll get a deeply hands-on, real-world education that doesn’t just teach theory — it gives you the chance to build, test and apply engineering solutions that matter in healthcare and human wellbeing. The program is designed so you graduate not just with knowledge, but actual experience: working with biomedical labs, collaborating on interdisciplinary research, and getting your hands dirty on meaningful projects. This isn’t a purely classroom-based degree — you’ll come out ready to contribute from day one in a medical tech startup, hospital, research institute or regulatory setting.

Here are the real experiential learning opportunities built into the degree:

  • Access to dedicated biomedical labs and facilities — including a plasma lab and a dark room for single-molecule biomechanics — where you’ll work on bioelectronics, biomechanics, materials for implants or tissue devices.

  • Study across multiple disciplines (mechanical, mechatronic, electronic, chemical, materials engineering + life sciences), giving you flexibility to specialise in what interests you most — whether that’s tissue engineering, biomaterials, bioelectronics or computational biomedical systems.

  • A structured “Biomedical Stream” curriculum comprising core biomedical units, biomedical electives, and industry/enterprise-linked units, ensuring your studies stay grounded in real biomedical engineering challenges.

  • Through the university’s Professional Engagement Program, opportunity to do a six-week internship (or longer industrial placement) to gain first-hand experience working within industry or clinical-research settings.

  • Final-year honours thesis project — a chance to design, develop and demonstrate an innovative biomedical engineering solution (device, system or process), often in collaboration with industry or medical researchers.

If you enjoy combining engineering with biology and want to graduate as someone who’s already done real biomedical work — not just passed exams — this program gives you the tools, the lab-space, the mentorship and the structure to do just that

Progression & Future Opportunities

If you do the Bachelor of Engineering (Honours) in Biomedical Engineering at University of Sydney, you’ll be joining a program that prepares graduates for meaningful, real-world careers. Many alumni go on to become biomedical engineers, medical–device designers, clinical support specialists or instrumentation engineers — though there’s a wide variety of paths depending on where your interests lie.

Here’s what this means for you:

  • You’ll benefit from a strong focus on industry exposure and employability. Through the university’s “Professional Engagement Program,” right from early on you’ll get opportunities for internships, site visits, engineering conferences, and six-week placements to build real-world experience.

  • The university’s huge network — over 1,200+ industry partners — means you have a good shot at internships, capstone projects or graduate-job offers with companies designing medical devices or working in hospital systems.

  • Once you graduate, you’ll hold an engineering qualification that is professionally accredited, which helps internationally as well as in Australia — making your degree credible for employers worldwide.

  • Given the breadth of biomedical engineering, you’ll have flexibility for long-term growth: you could work in medical-device design, clinical engineering roles, R&D, or even regenerative medicine and biotechnology, depending on specialisations you pick.

Further Academic Progression:
After finishing this bachelor’s, if you want to deepen your expertise, you could go on to study a master’s in Biomedical Engineering (or related post-graduate offerings at the University of Sydney). That could open doors to advanced research, development of sophisticated medical devices, tissue engineering or leadership roles in biomedical R&D.

If you care about combining engineering with medicine, health, or innovation — this program gives you a strong foundation, meaningful industry connections, and a flexible platform for growth (both in work and academics).

Program Key Stats

$60,600
$8,796
$ 150

Aug Intake : 30th JunFebr Intake : 30th Nov


No
Yes

Eligibility Criteria

AAB
3
31
85

N/A
N/A
6.5
85
85

Additional Information & Requirements

Career Options

  • Biomedical Engineer
  • Clinical Engineer
  • Rehabilitation Engineer
  • Medical Device Designer
  • Biomedical Research Scientist
  • Biomechanics Engineer
  • Regulatory Affairs Specialist
  • Quality Assurance Engineer (Medical Devices)
  • Tissue Engineering Specialist
  • Healthcare Technology Consultant

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