Bachelor of Science majoring in Nuclear and Radiation Physics

3 Years On Campus Bachelors Program

University of Adelaide

Program Overview

The Bachelor of Science majoring in Nuclear and Radiation Physics at the University of Adelaide is designed for students who are curious about how radiation and nuclear processes shape our world — from medical imaging and cancer treatment to energy production and environmental protection. This major gives you a strong foundation in physics while building specialised expertise in nuclear science, radiation detection and safety, preparing you for careers in healthcare, research, defence, energy and advanced technology sectors.

Curriculum Structure

First Year – Building Strong Scientific Foundations

In your first year, you’ll focus on establishing a solid grounding in core physics and mathematics. You’ll study courses such as Physics IA, Physics IB, and Mathematics IA (Calculus), developing a deep understanding of mechanics, electromagnetism and mathematical modelling — the essential tools for advanced nuclear physics studies. Alongside this, you’ll strengthen your analytical thinking and problem-solving skills through laboratory work and practical sessions.

Second Year – Exploring Radiation and Modern Physics

In second year, you begin to specialise. Courses such as Electromagnetism, Quantum Mechanics, and intermediate-level physics units introduce you to the principles that govern atomic nuclei and radiation interactions. You’ll also continue advancing your mathematical methods, learning how theoretical physics connects directly to real-world radiation applications and measurement techniques.

Third Year – Advanced Nuclear and Radiation Applications

Your final year focuses on specialised topics such as Nuclear and Particle Physics, Radiation Physics, and advanced laboratory or project-based physics courses. Here, you’ll explore nuclear structure, radioactive decay processes, radiation detection technologies and safety principles, while applying theoretical knowledge through practical experiments and research-informed learning. By the end of the program, you’ll be confident working with the scientific concepts that underpin nuclear energy, medical radiation and radiation protection industries.

Focus Areas

Nuclear physics, radiation physics, particle physics, quantum mechanics, radiation detection and measurement, nuclear safety, applied electromagnetism, advanced laboratory physics.

Learning Outcomes

Graduates develop the ability to explain nuclear and radiation processes using advanced physical theory, analyse radiation interactions and detection systems, apply quantitative methods to complex scientific problems, and communicate technical findings clearly in professional environments.

Professional Alignment (Accreditation)

The physics major is accredited by the Australian Institute of Physics (AIP), supporting eligibility for professional membership and formal recognition within the physics community.

Reputation (Employability & Rankings)

The University of Adelaide is internationally recognised for excellence in science and research, with strong global rankings in physical sciences and a long-standing reputation for producing highly employable STEM graduates equipped for research, industry and government roles.

Experiential Learning (Research, Projects, Internships etc.)

At the University of Adelaide, the Bachelor of Science majoring in Nuclear and Radiation Physics is built around learning by doing. From early laboratory classes through to advanced third-year practicals, you’ll work directly with radiation detection equipment, experimental setups and modern physics instrumentation used in real research environments. The program is delivered through the School of Physics, Chemistry and Earth Sciences, giving you access to active research spaces and academics who work in nuclear science, radiation measurement and related technologies.

As you progress, you’ll move beyond theory into practical experimentation, data analysis and applied problem-solving — preparing you for roles in medical, environmental, energy and defence sectors:

Advanced physics laboratories equipped for nuclear and radiation experiments, where you’ll work with radiation detection systems, spectroscopy equipment and measurement instrumentation.
Access to research environments within the School of Physics, Chemistry and Earth Sciences, supporting hands-on exposure to nuclear and particle physics research activities.
Practical coursework in radiation measurement and detection techniques, including data collection, analysis and interpretation using scientific computing tools.
Opportunities to undertake project-based learning in senior years, allowing you to investigate specialised nuclear or radiation topics under academic supervision.
Integration of computational tools and scientific software for analysing radiation data and modelling physical systems as part of laboratory and theory courses.
Access to the University’s high-performance computing and technical facilities to support complex data processing and simulations.
Full use of the University’s library and digital research databases, providing access to leading physics journals and nuclear science publications essential for project and laboratory work.
Engagement with South Australia’s growing nuclear and defence sector ecosystem, which supports exposure to real-world applications of radiation science.

Progression & Future Opportunities

Graduating with a Bachelor of Science majoring in Nuclear and Radiation Physics from the University of Adelaide places you in a highly specialised and in-demand field. With strong foundations in nuclear science, radiation detection and safety, you’ll be well prepared for roles such as Health Physicist, Radiation Protection Officer, Nuclear Safety Specialist, or Medical Physics Assistant (with further study). These careers span healthcare, defence, environmental monitoring, research institutions and Australia’s growing nuclear and energy sectors — giving you both national and international opportunities:

Career support services: The University’s Careers and Employability team supports you from first year through graduation with personalised career consultations, CV and interview workshops, networking events, and access to AU CareerHub, where students can find internships, graduate programs and industry roles.
Employment outcomes: Science and physics graduates from the University are recognised for strong analytical and technical skills, contributing to high employability across STEM sectors. Physics graduates typically enter professional or technical roles in government agencies, hospitals, research laboratories and defence-related industries.
University–industry connections: The University has established links with South Australia’s defence, space and nuclear-related sectors, providing exposure to organisations operating in radiation safety, advanced manufacturing and energy systems.
Professional accreditation value: The physics major is accredited by the Australian Institute of Physics (AIP), enabling eligibility for professional membership and formal recognition within Australia’s physics community — a strong long-term credential for career progression.
Graduation outcomes: Graduates move into radiation safety management, nuclear technology analysis, environmental radiation monitoring, or technical advisory roles, while others enter research pathways or specialist postgraduate programs in medical or nuclear physics.

Further Academic Progression:
After completing this degree, you can advance into an Honours year in physics to deepen your research experience, followed by a Master’s or PhD in Nuclear Physics, Medical Physics, Radiation Protection or related specialisations. This pathway is particularly valuable if you aim to become a qualified Medical Physicist, pursue high-level research, or move into senior advisory roles within government, healthcare or international nuclear organisations.