Bachelor of Science (Frontier Physics) and Master of Physics - Medical Physics

4 Years On Campus Accelerated-masters Program

University of Western Australia

Program Overview

This 4.5-year combined Bachelor and Master program is designed for students who want to apply advanced physics directly to healthcare and medical technology. If you’re fascinated by how radiation, imaging, and physics principles are used to diagnose and treat disease, this degree gives you the scientific depth and specialised medical physics training needed to work in clinical and research environments.

You’ll begin with strong foundations in physics and mathematics, then progressively move into advanced topics such as radiation physics, medical imaging, and clinical applications — finishing with Master-level coursework and research preparation tailored to medical physics.

Curriculum Structure

Year 1

In your first year, you build essential foundations in physics, mathematics and computing. Units such as Classical and Frontier Physics, Modern and Frontier Physics, and Multivariable Calculus develop your understanding of motion, energy, waves and fundamental physical laws. You’ll also strengthen your analytical thinking and computational skills, which are critical for later medical physics applications.

Year 2

The second year deepens your understanding of core physics principles. You’ll study units such as Quantum Physics and Electromagnetism and Many Particle Systems, learning how atomic and subatomic behaviour underpins modern medical imaging and radiation technologies. At this stage, you begin connecting theoretical physics to real-world technological systems.

Year 3

In third year, the program becomes more advanced and specialised. Units like Quantum Mechanics and Atomic Physics and Electrodynamics, Special and General Relativity strengthen your conceptual mastery, while Mathematical Physics enhances your ability to model complex systems. These subjects prepare you for the clinical and applied physics focus in the final stages of the program.

Year 4

Your fourth year transitions into postgraduate-level study. You move into advanced physics units aligned with medical applications, focusing on radiation physics, imaging systems, and applied computational techniques. This year builds the theoretical and technical depth required for clinical medical physics environments.

Final Half-Year (Master Research/Advanced Study Component)

In the final 0.5 year, you complete advanced Master-level coursework and research preparation. This component allows you to integrate physics theory with medical application, preparing you for professional medical physics training pathways or further research study. It’s where your knowledge becomes professionally focused and clinically relevant.

Focus areas (in a string):

Radiation physics; medical imaging physics; quantum mechanics; electromagnetism; computational modelling; atomic and nuclear physics; applied clinical physics.

Learning outcomes (in a string):

Apply advanced physics principles to medical technologies; model and analyse radiation interactions; interpret imaging and diagnostic systems; solve complex clinical physics problems; communicate scientific findings in professional healthcare settings.

Professional alignment (accreditation):

The physics component aligns with professional standards recognised by the Australian Institute of Physics, supporting pathways into accredited medical physics training programs following graduation.

Reputation (employability rankings):

UWA is consistently ranked among the world’s leading universities for science and research (including strong performance in QS World University Rankings). Its research-intensive environment and strong science reputation enhance graduate employability in healthcare, research, and advanced technology sectors.

Experiential Learning (Research, Projects, Internships etc.)

One of the things I really like about this 4.5-year program is that you’re not just sitting in lectures learning equations — you’re learning how physics is actually used to diagnose and treat patients. At The University of Western Australia, medical physics students are immersed in real research environments, advanced laboratories, and clinically connected facilities that reflect the professional world you’re preparing to enter. From radiation physics labs to computational modelling, you develop the technical confidence and practical experience expected in hospital and research settings.

As you progress through the degree, your learning becomes increasingly hands-on and professionally focused:

Medical Physics Research Group – You engage with UWA’s dedicated Medical Physics Research Group, which works in areas such as radiation therapy physics, tumour modelling and medical imaging research. This connects you directly with active researchers solving real clinical problems.
Hospital-linked environment – The program has strong ties with clinical settings including Sir Charles Gairdner Hospital, giving students insight into radiation oncology and diagnostic imaging environments where medical physicists operate.
Specialised physics laboratories – You train in advanced physics labs within UWA’s School of Physics, Mathematics and Computing, using professional-grade instrumentation to study radiation interactions, detector systems and applied electromagnetism.
Scientific computing and software skills – The course integrates computational physics using tools such as Python and numerical modelling platforms. These are essential for analysing imaging data, modelling radiation dose, and solving complex clinical physics problems.
Research-based learning and projects – In your later years, particularly during the Master-level component, you undertake advanced project work. This strengthens your ability to design experiments, interpret data and present scientific findings — exactly what’s required in professional medical physics pathways.
Collaborative group work – Many upper-level units involve teamwork, reflecting the multidisciplinary nature of healthcare, where physicists collaborate with oncologists, radiologists and engineers.
Research and study spaces – You’ll have access to high-level study and research facilities, including the Reid Library, which supports science students with specialised collections and research resources.

Progression & Future Opportunities

Finishing the Bachelor of Science (Frontier Physics) and Master of Physics – Medical Physics at The University of Western Australia means you graduate with skills that are in demand where physics meets healthcare. Graduates routinely move into roles such as clinical medical physicist in radiation oncology, diagnostic imaging physicist, health physics specialist, or medical technology research scientist — a combination of scientific depth and clinical focus makes this qualification highly sought after in hospitals, research institutes and technology companies:

• Personalised career support: UWA’s Careers and Employability Centre offers tailored help for science and health-focused graduates with CV advice, interview preparation, job search guidance and employer networking events. They also link students with internships and clinical placements where available, helping you build professional connections before you finish your degree.

• Graduate outcomes and earning potential: National graduate data consistently shows that postgraduate-level qualifications (like this combined degree) lead to strong employment outcomes and higher median salaries compared to undergraduate-only study, especially in specialist STEM and healthcare fields.

• Industry and clinical partnerships: The medical physics program is developed in close alignment with clinical practice — with active engagement from hospitals and professional medical physics groups. This means you’re learning skills that employers in radiation oncology, diagnostic imaging and health technology research specifically value.

• Long-term accreditation value: While this combined degree prepares you for further clinical training, the physics foundation and postgraduate level training give you a strong platform for certification pathways in professional medical physics bodies and healthcare institutions.

• Graduate destinations: Graduates find work in hospitals, private imaging practices, healthcare technology developers, regulatory bodies focused on radiation safety, and research settings applying medical physics techniques to real-world health challenges.

Further Academic Progression:
If you choose to continue your studies, this degree positions you well for Honours and PhD research in Medical Physics or related scientific fields, where you can specialise in areas such as advanced imaging, radiation therapy modelling or biomedical instrumentation. Postgraduate research or professional medical physics training programs can open doors to leadership roles in clinical departments, academic positions, or high-level research careers both in Australia and overseas.