Bachelor of Science in Physics

3 Years On Campus Bachelors Program

RMIT University

Program Overview

This Physics major within the Bachelor of Science degree offers a rich blend of theoretical understanding and hands-on scientific practice. It’s designed for students who are curious about how the universe works from the motion of planets to the behaviour of subatomic particles — and who want to apply physics principles to real-world scientific and technological challenges. The program builds strong analytical, experimental, and mathematical skills that are highly valued in research, industry and scientific careers.

Curriculum Structure

Year 1 – Foundational Knowledge

Students begin with a broad scientific foundation covering essential physics, chemistry, mathematics and data science concepts. Core subjects introduce fundamental physical behaviours and develop skills in scientific thinking, problem solving and data analysis.

Year 2 – Core Physics & Mathematical Tools

In the second year, students explore essential physics areas including mechanics, electromagnetism and materials physics. Mathematics — such as differential equations and vector calculus — supports deeper understanding and problem modelling.

Year 3 – Advanced Topics & Capstone

The final year focuses on advanced physics topics such as optics, quantum mechanics, radiation and thermal physics, along with elective options. Students undertake a capstone research project, working closely with academics to apply knowledge to real problems and develop independent research skills.

Focus Areas:

Classical and modern physics, including mechanics, electromagnetism and quantum theory.
Materials physics, optics and applied physical systems.
Mathematical modelling, experimental methods and data analysis.

Learning Outcomes:

Apply core physical laws to analyse and solve complex scientific problems.
Design, conduct and interpret laboratory experiments using scientific instrumentation.
Communicate technical findings clearly in professional and research contexts.

Professional Alignment (Accreditation):

Research and laboratory-based scientific roles in academia or industry.
Careers in technology, energy, data analysis, defence or advanced manufacturing sectors.
Pathways to postgraduate study, teaching, medical physics or specialised scientific fields.

Reputation (Employability & Rankings):

RMIT University is globally recognised for its industry-connected education model and practical learning approach. The university consistently ranks among the world’s leading young universities in the QS World University Rankings, reflecting strong graduate employability and industry engagement.

Experiential Learning (Research, Projects, Internships etc.)

One of the biggest strengths of this program is its strong practical focus. From your first year, you’ll work in real laboratory environments using professional scientific equipment — not just observing experiments, but designing, conducting and analysing them yourself. RMIT’s industry-connected learning model ensures you graduate with technical confidence, research capability and hands-on problem-solving skills that mirror real scientific workplaces.

Here’s what that looks like in practice:

• Advanced Physics Laboratories: You’ll conduct experiments in mechanics, electromagnetism, optics and modern physics, using oscilloscopes, laser systems, spectroscopy tools and radiation detection equipment to investigate real physical phenomena.

• Materials & Nanophysics Training: Through specialised lab sessions, you’ll explore material properties, semiconductor behaviour and applied physics systems, linking theory directly to modern technology applications.

• Capstone Research Project: In your final year, you’ll undertake an independent research project under academic supervision — designing experiments, analysing data and presenting findings in a professional scientific format.

• Industry-Informed Curriculum: Many subjects integrate real-world case studies and applied problem-solving tasks aligned with sectors such as renewable energy, advanced manufacturing and defence technologies.

• Collaborative & Project-Based Learning: Group laboratory work strengthens teamwork, scientific reporting and presentation skills — mirroring multidisciplinary research and industry environments.

• Digital Modelling & Data Analysis Tools: You’ll develop proficiency in computational modelling, mathematical simulation and scientific data analysis software widely used in research and engineering settings.

• Research-Active Environment: As part of RMIT’s STEM College, you study within a university known for applied research and industry engagement, giving you exposure to innovation-driven scientific culture.

• Specialised Science Resources: Access to advanced scientific databases, journals and research support services ensures your experimental and research work is grounded in high-quality literature.

Progression & Future Opportunities

By the time you graduate, you won’t just understand physics — you’ll know how to apply it. With strong laboratory experience, mathematical modelling expertise, and independent research exposure, graduates move into roles such as Research Assistant, Laboratory Scientist, Data Analyst, Physics Technician, Energy Systems Analyst, or Technical Consultant across sectors including renewable energy, advanced manufacturing, defence, environmental science, and technology industries. What makes this degree powerful is its flexibility — physics develops highly transferable analytical and quantitative skills that open multiple career pathways.

Here’s how RMIT supports your future direction:

• Personalised Career Support: RMIT’s Careers and Employability services provide one-on-one coaching, CV and LinkedIn reviews, interview preparation, employer networking events and access to Career Connect — helping you engage with industry while still studying.

• Industry-Relevant Skills: The program’s practical labs, capstone research project and applied problem-solving focus ensure you graduate with demonstrable technical and analytical competencies valued by employers.

• Professional Recognition Pathways: Depending on subject selection, the degree can support eligibility for professional membership with organisations such as the Australian Institute of Physics, strengthening your professional credibility.

• Research-Active Environment: Studying within RMIT’s STEM College places you in an innovation-focused setting aligned with real-world scientific and technological advancement.