University of Adelaide

What you'll study

This programme combines core physics and mathematics with specialised topics in nuclear and radiation physics. In early years you study foundational subjects such as classical mechanics, electromagnetism, introductory quantum mechanics, mathematical methods for physics and laboratory techniques. From the second year onwards the course introduces nuclear and radiation topics including nuclear structure and reactions, radioactivity and decay processes, radiation–matter interactions, radiation detection and measurement, and principles of radiation protection.

Typical modules and learning experiences include:

• Introductory and intermediate physics (mechanics, electromagnetism, modern physics)
• Mathematical methods for physicists and computational physics (numerical methods, data analysis, programming)
• Nuclear physics (nuclear models, reaction mechanisms, decay modes)
• Radiation detection and instrumentation (detector types, signal processing, spectroscopy)
• Medical imaging and radiation applications (principles of X‑ray, CT, PET and gamma imaging)
• Radiation protection and safety (dosimetry, regulations, radiation risk management)
• Experimental laboratory work and practical training in detector operation and measurement techniques
• Final-year research project or honours option, allowing independent research under academic supervision

Assessment typically mixes written exams, laboratory reports, practical assessments, computational projects and a research project in the senior year. Students can usually tailor elective choices to emphasise instrumentation, computational methods or applied radiation topics.

Entry requirements

Entry is for applicants who have completed a recognised secondary school qualification. Successful applicants normally need strong achievement in mathematics and physics or equivalent science subjects. The University considers domestic selection ranks (such as ATAR) and international applicants are assessed on recognised qualifications (for example IB, A‑Levels or equivalent). English language proficiency is required where the first language is not English.

Because this is a technically demanding programme, preferred preparation includes units in calculus, advanced mathematics and high‑school physics. Applicants with prior tertiary study in relevant science or engineering subjects may be considered through alternative admission pathways. Competitive entry may be required for specialised streams or honours entry.

Career prospects

Graduates with a Bachelor in Nuclear and Radiation Physics have career options across science, healthcare, industry and government. Common pathways include:

• Further study: honours and postgraduate research degrees (MSc, PhD) for careers in research or academia
• Medical and health sectors: roles in medical physics often require postgraduate professional training; graduates can work in imaging, radiotherapy support or as part of multidisciplinary clinical teams after further qualification
• Radiation protection and safety: radiation safety officer roles in hospitals, industry, mining and regulatory organisations
• Instrumentation and engineering: development, maintenance and calibration of radiation detectors and measurement systems
• Energy and industry: roles in nuclear technology, non‑destructive testing, environmental monitoring and process control
• Government and regulatory bodies: technical advisor roles in policy, licensing and emergency response
• Private sector and instrumentation companies: technical positions in manufacturing, testing and applied research

Many graduates combine employment with postgraduate study to qualify for regulated professions (for example medical physicist roles) or to specialise in areas such as nuclear engineering, radiochemistry or radiation biology.

Why study at University of Adelaide

The University of Adelaide has a longstanding School of Physical Sciences with experienced academic staff in experimental and theoretical physics. Students benefit from laboratory‑based teaching, access to modern instrumentation and opportunities to undertake supervised research projects that link into the University’s broader research activities. The programme emphasises practical skills—measurement, data analysis, modelling and safety practice—preparing graduates for technical roles or further professional training.

The University’s connections with industry and research partners support work placements, collaborative projects and employment pathways in healthcare, industry and government. Studying in Adelaide also offers proximity to a compact research community and opportunities to engage with cross‑disciplinary teams across engineering, health sciences and applied physics.