Bachelor of Science (Honours) majoring in Computational Physics

4 Years On Campus Bachelors Program

University of Adelaide

Program Overview

If you enjoy both physics and coding, this honours degree brings the two together in a powerful way. The Bachelor of Science (Honours) majoring in Computational Physics is designed for students who want to use mathematics, algorithms and simulation to solve complex physical problems — whether that’s modelling quantum systems, analysing large datasets, or running high-level scientific computations.

Curriculum Structure

Year 1 – Building Your Scientific and Coding Foundation

In your first year, you’ll develop strong foundations in physics, mathematics and programming. Through subjects such as Physics 1B (PHYS1002), Calculus 2 (MATH1005), Problem Solving and Programming (COMP1002) and Object-Oriented Programming (COMP1005), you’ll learn how to approach scientific questions logically and begin writing code to solve real problems. This year is about building confidence — both in understanding physical systems and in using programming as a scientific tool.

Year 2 – Connecting Physics with Numerical Methods

Second year is where the integration really begins. In courses like Quantum Mechanics and Experimental Physics II (PHYS2001) and Electromagnetism II (PHYS2002), you’ll explore more advanced physical theories, while subjects such as Numerical Methods strengthen your ability to turn mathematical models into computational solutions. You start seeing how algorithms and physics work together to simulate and analyse complex systems.

Year 3 – Advanced Modelling and Specialisation

By third year, you’ll be tackling challenging and exciting topics such as Electromagnetism, Quantum and Statistical Mechanics (PHYS3002), Advanced Dynamics and Relativity (PHYS3005) and Solid State Physics (PHYS3006). At this stage, your programming and modelling skills become more sophisticated, allowing you to handle large-scale simulations and deeper theoretical problems with confidence. You’re no longer just learning theory — you’re applying it computationally.

Honours Year – Independent Research in Computational Physics

Your honours year is where everything comes together. You’ll complete a substantial Honours research project, working closely with academic supervisors to apply computational physics techniques to a real research question. This experience not only strengthens your technical and research skills but also prepares you for postgraduate study, high-level industry roles, or careers in scientific computing and data-intensive fields.

Focus areas: numerical modelling, high-performance scientific computing, quantum and statistical mechanics, computational simulation, mathematical physics, advanced programming for science.

Learning outcomes: integrate physics theory with computational methods; design and implement numerical simulations; analyse complex data and physical systems; conduct independent scientific research; communicate technical findings clearly and professionally.

Professional alignment (accreditation): The program is accredited by the Australian Institute of Physics, ensuring it meets national standards for physics education and supporting pathways to professional recognition.

Reputation (employability rankings): The University of Adelaide is a member of Australia’s prestigious Group of Eight research-intensive universities and is consistently ranked among the world’s leading institutions for science and research performance, strengthening your global employability.

Experiential Learning (Research, Projects, Internships etc.)

In this honours program, you won’t just learn about computational physics — you’ll actively practise it. From early programming courses to advanced modelling subjects, you’ll write real code, solve numerical problems, and work with the same types of tools researchers use to simulate complex physical systems. By the time you reach your honours year, you’ll be confidently designing and running your own computational research project, supported by academics who are active in cutting-edge physics research:

• Programming-focused coursework – Through subjects such as Problem Solving and Programming (COMP1002) and Object-Oriented Programming (COMP1005), you’ll develop practical coding skills in languages commonly used in scientific computing, building a strong technical foundation from first year.

• Numerical and computational modelling training – Physics and mathematics courses integrate computational methods, allowing you to apply numerical techniques to quantum mechanics, electromagnetism and statistical physics problems rather than studying them purely in theory.

• Access to Phoenix High Performance Computing (HPC) – As a student, you can access Phoenix, the University’s high-performance computing facility, to run large-scale simulations and complex data analysis that go beyond standard desktop capabilities.

• Honours research project – In your final year, you’ll complete a substantial independent research project in computational physics, working closely with an academic supervisor. This mirrors the structure of real scientific research and prepares you for postgraduate study or technical industry roles.

• School of Physics, Chemistry and Earth Sciences facilities – You’ll study within a research-active environment that includes advanced laboratories and computing spaces supporting physics and computational research.

• Library and research support – The University’s libraries provide access to scientific journals, databases and research resources essential for computational modelling and honours-level research work.

Progression & Future Opportunities

By the time you graduate from this honours program, you won’t just understand physics — you’ll know how to apply it using advanced computational tools. That combination opens doors to careers as a computational physicist, data scientist, high-performance computing specialist, or quantitative analyst, where strong modelling and programming skills are in high demand across research institutions, government agencies and technology-driven industries:

• Careers & Employability support – Adelaide’s dedicated Careers Service works with you throughout your degree, offering career planning appointments, CV and interview workshops, employer networking events, and internship guidance to help you transition smoothly into professional roles.

• Industry engagement opportunities – Through career expos, research seminars and employer events connected to the School of Physics, Chemistry and Earth Sciences, you’ll meet organisations working in defence, space, advanced technology and scientific computing sectors.

• Honours research advantage – Completing a substantial independent research project demonstrates to employers that you can manage complex problems, work independently, analyse data rigorously and communicate technical findings clearly — qualities that stand out in competitive fields.

• Accreditation by the Australian Institute of Physics (AIP) – The program’s accreditation supports professional recognition and signals that your qualification meets nationally recognised standards in physics education.

• Strong research reputation – As a member of Australia’s Group of Eight research-intensive universities, Adelaide’s global standing strengthens the value of your degree and enhances your employability both in Australia and internationally.

Further Academic Progression:
If you find yourself drawn to deeper research questions during your honours year, this degree provides a clear pathway into postgraduate study. Many graduates continue into a Master’s degree or PhD in computational physics, data science, applied mathematics or related areas, using their honours research project as a direct stepping stone into advanced research and academic careers.