Bachelor of Engineering (Honours) (Biomedical)

4 Years On Campus Bachelors Program

University of Technology Sydney

Program Overview

The Bachelor of Engineering (Honours) in Biomedical Engineering at the University of Technology Sydney combines engineering innovation with medical and biological sciences to prepare students for careers developing healthcare technologies and biomedical solutions. The program is ideal for students interested in medical devices, rehabilitation technology, biomechanics, electronics, and healthcare innovation, offering strong industry engagement alongside practical engineering and scientific training.

Curriculum Structure

Year 1

In the first year, students establish core engineering and scientific foundations through mathematics, physics, computing, and engineering design subjects. Courses such as Engineering Communication, Mathematics 1, and Physical Modelling introduce students to technical problem-solving, engineering principles, and professional communication while developing analytical and computational skills essential for biomedical engineering.

Year 2

Second year focuses on integrating engineering systems with biological and medical applications. Subjects including Biomedical Engineering Studio, Signals and Systems, and Human Anatomy and Physiology for Engineers help students understand human biological systems, electronic signal processing, and engineering approaches used in healthcare technologies and medical instrumentation.

Year 3

During third year, students explore advanced biomedical engineering concepts through both technical and project-based learning. Courses such as Biomechanics and Biomaterials, Medical Devices and Diagnostics, and Control Systems allow students to investigate rehabilitation engineering, medical technologies, biomaterials, and healthcare system design while strengthening laboratory and engineering analysis skills.

Year 4

The honours year centres on advanced engineering design and research experience through major industry-focused and research-based projects. Students complete capstone engineering projects, collaborate on real-world biomedical challenges, and apply professional engineering practices in areas such as medical device innovation, biomedical systems, healthcare technologies, and clinical engineering solutions.

Focus Areas

Biomedical engineering, medical devices, biomechanics, biomaterials, rehabilitation engineering, healthcare technology, electronics, biomedical systems, signal processing, control systems, engineering design, and clinical technology innovation.

Learning Outcomes

Graduates develop expertise in engineering analysis, biomedical system design, medical technology development, problem-solving, data interpretation, and interdisciplinary collaboration. Students gain practical engineering skills together with knowledge of human biology, healthcare technologies, and professional engineering practice.

Professional Alignment (Accreditation)

The Bachelor of Engineering (Honours) is accredited by Engineers Australia, and the qualification is recognised internationally through the Washington Accord. This accreditation supports professional engineering recognition and global career mobility within biomedical and engineering industries.

Reputation (Employability Rankings)

UTS is recognised globally for engineering and technology education and is known for its strong industry partnerships, practical learning focus, and graduate employability. The university consistently performs strongly in global rankings for Engineering and Technology subjects and maintains strong connections with healthcare, engineering, and innovation industries.

Experiential Learning (Research, Projects, Internships etc.)

Students in the Bachelor of Engineering (Honours) (Biomedical) at the University of Technology Sydney gain extensive hands-on experience through engineering design projects, laboratory experimentation, industry collaboration, and technology-focused problem solving. The program strongly emphasises practical application, allowing students to work with biomedical systems, medical technologies, electronics, and healthcare engineering tools in modern engineering facilities. Through studio-based learning and industry-connected projects, students develop technical, analytical, and professional engineering skills while applying engineering principles to real healthcare and biomedical challenges:

Engineering Studio Learning: Biomedical engineering students participate in studio-based subjects where they solve real engineering problems, collaborate in teams, and develop healthcare technology solutions using practical engineering methods.
Biomedical Engineering Laboratories: Students work in specialised laboratories equipped for electronics, signal processing, biomechanics, biomaterials, and biomedical systems experimentation.
Medical Device Design Projects: Practical coursework includes designing and testing biomedical devices, healthcare technologies, and engineering systems relevant to clinical and rehabilitation environments.
Capstone Engineering Project: In the honours year, students complete a major research or industry-based engineering project addressing real-world biomedical engineering challenges.
Industry Collaboration Opportunities: UTS engineering programs maintain strong industry engagement, giving students exposure to healthcare organisations, technology companies, engineering professionals, and innovation-focused projects.
Computer-Aided Engineering Tools: Students use professional engineering and modelling software for design, simulation, systems analysis, programming, and technical problem-solving throughout the degree.
Biomechanics & Biomaterials Training: Laboratory and project work allows students to investigate human movement, prosthetics, biomaterials, rehabilitation technologies, and biomedical system performance.
Signals & Systems Applications: Students gain practical experience analysing biomedical signals and electronic systems used in healthcare monitoring and medical instrumentation.
Collaborative Group Projects: Team-based engineering projects strengthen communication, leadership, project management, and interdisciplinary problem-solving skills.
Research & Innovation Facilities: Students benefit from access to UTS engineering research facilities and innovation-focused environments supporting advanced technology development and biomedical research.
Library & Digital Learning Resources: UTS provides access to engineering databases, digital modelling resources, biomedical journals, research software, and advanced online learning systems that support technical and scientific learning.
Professional Engineering Practice: Through presentations, project documentation, laboratory reporting, and engineering design work, students build professional competencies aligned with engineering industry standards.

Progression & Future Opportunities

Graduates of the Bachelor of Engineering (Honours) (Biomedical) at the University of Technology Sydney are prepared for careers at the intersection of healthcare, engineering, and technology innovation. With strong practical engineering training, industry-focused project experience, and internationally recognised accreditation, graduates are equipped to contribute to the development of medical devices, rehabilitation systems, healthcare technologies, and biomedical research solutions. Typical career pathways include biomedical engineer, medical device engineer, clinical engineer, rehabilitation engineer, biomedical systems specialist, and healthcare technology consultant:

UTS Careers Service: Students receive employability support through UTS Careers, including career coaching, résumé and interview workshops, networking events, employer engagement sessions, internship guidance, and graduate recruitment preparation.
Engineers Australia Accreditation: The degree is accredited by Engineers Australia and recognised internationally through the Washington Accord, supporting long-term professional engineering recognition and global employment opportunities.
Industry-Focused Engineering Education: UTS is recognised for its strong practical and industry-connected teaching model, helping students graduate with workplace-ready engineering and technical skills.
Industry Collaboration Opportunities: Students engage with projects and learning experiences connected to healthcare technology, engineering innovation, and biomedical industries through UTS’s strong partnerships with industry and research organisations.
Graduate Employability Reputation: UTS maintains a strong reputation for graduate employability, particularly in engineering and technology disciplines, supported by practical learning and professional project experience.
Professional Engineering Skills: Graduates develop competencies in engineering design, medical technology development, systems analysis, teamwork, technical communication, and problem-solving relevant to biomedical and healthcare sectors.
Healthcare & Technology Career Pathways: Graduates may pursue employment across hospitals, medical technology companies, rehabilitation services, biotechnology firms, research laboratories, engineering consultancies, and healthcare innovation industries.
Research & Innovation Exposure: Students gain experience working within technology-focused and research-oriented environments that support innovation in biomedical systems, diagnostics, and healthcare engineering.
Capstone Project Experience: The honours-level engineering project demonstrates advanced technical capability, project management experience, and the ability to solve complex engineering problems in biomedical contexts.
Global Engineering Recognition: International accreditation enhances mobility for graduates seeking engineering careers and postgraduate opportunities in Australia and overseas.

Further Academic Progression:
Graduates may continue into postgraduate study through Master’s or research degrees in biomedical engineering, medical technology, biotechnology, robotics, rehabilitation engineering, healthcare innovation, or related engineering disciplines. The honours qualification also provides strong preparation for Doctor of Philosophy (PhD) programs and advanced research opportunities in biomedical systems, medical device development, and clinical engineering technologies.