University of Adelaide

What you'll study

This honours programme builds on core physics and mathematics to provide specialised training in nuclear and radiation physics. Typical coursework covers quantum mechanics and nuclear structure, radiation-matter interactions, radioactive decay and nuclear reactions, radiation detection and measurement, radiation protection and dosimetry, and the basics of reactor and accelerator physics. You will also study related subjects such as statistical mechanics, instrumentation and electronics for radiation measurements, computational physics and data analysis techniques.

The honours year places strong emphasis on laboratory and practical skills: advanced laboratory classes, hands‑on work with radiation detectors (scintillation counters, semiconductor detectors, gas detectors), spectroscopy, and calibration techniques are typical. A substantial supervised research project is central to the honours year and develops experimental or computational expertise, scientific communication and research methods. Elective topics may include medical physics applications, environmental radioactivity monitoring, radiation safety management, and Monte Carlo radiation transport simulations.

Entry requirements

Admission to the honours year generally requires completion of a Bachelor of Science (or equivalent) with a substantial component of physics and mathematics, and a strong academic record in those subjects. Applicants are expected to have completed intermediate-to-advanced courses in classical and modern physics (including quantum mechanics and electromagnetism) and calculus-based mathematics.

Selection is competitive and based on academic performance, references and the match between your preparation and proposed honours project. International applicants must meet the University of Adelaide's general English language requirements and demonstrate comparable academic preparation. Prospective students are encouraged to contact potential supervisors to discuss research interests and suitability prior to application.

Career prospects

Graduates are prepared for a range of technical, regulatory and research roles. Typical career paths include positions in radiation protection and safety, environmental monitoring and radiological assessment, nuclear industry and fuel cycle work, instrumentation and detector development, and applied research in universities or government laboratories. With further professional training or postgraduate study, graduates can move into medical physics (clinical roles in hospitals require accredited postgraduate training), radiation dosimetry, accelerator operations, or doctoral research leading to academic careers.

Alumni also find roles with regulatory bodies, national research organisations, energy and defence sectors, mineral and mining companies (where radiation assessment is required), and companies specialising in radiation instrumentation, nondestructive testing and industrial radiography.

Why study at University of Adelaide

The University of Adelaide is a research-led institution with longstanding strengths in physical sciences and practical laboratory training. The honours programme gives access to experienced academic staff in physics, specialised laboratory facilities and computational resources, and strong methodological training in experimental and theoretical approaches. The School encourages interdisciplinary collaboration and provides opportunities for projects that connect to medical physics, environmental science and engineering applications.

The University maintains links with industry and national research organisations, offering pathways to applied research and professional networks. Completing honours at Adelaide also provides a clear route into higher research degrees (PhD) or professional postgraduate training for careers such as clinical medical physics or technical leadership in radiation-related industries.