Bachelor of Engineering and Science(Physics)

5 Years On Campus Bachelors Program

Monash University

Program Overview

If you're excited by how physics shapes real-world technology, the Bachelor of Engineering and Science (Physics) at Monash University is designed for you—it blends deep scientific understanding with practical engineering skills so you graduate with two powerful skillsets. You’ll explore core physics concepts while simultaneously learning how to apply them through engineering design, making it ideal for students who want both theory and real-world impact.

Curriculum Structure

Year 1
You’ll build a strong foundation in both disciplines, starting with units like Engineering Design and Physics for Engineering, alongside mathematics such as Engineering Mathematics. This year is all about developing problem-solving skills and understanding fundamental physical laws that underpin engineering systems.

Year 2
As you progress, you’ll dive deeper into areas like Thermodynamics, Electrical Circuits, and Classical Mechanics, strengthening your technical knowledge. You’ll also begin applying theory to practical scenarios, working on structured engineering projects that connect physics principles with real-world applications.

Year 3
This is where your learning becomes more specialised, with units such as Quantum Physics, Materials Engineering, and Electromagnetism. You’ll start integrating advanced physics concepts into engineering contexts, gaining hands-on experience through labs and collaborative design work.

Year 4
Your focus shifts to advanced topics and professional practice, including Control Systems, Fluid Mechanics, and Statistical Physics. You’ll work on complex, industry-relevant problems and begin major project work that reflects real engineering and scientific challenges.

Year 5
In your final year, you’ll complete a significant Engineering/Science Honours Project, often linked to current research or industry needs. Alongside electives in areas like Nanotechnology or Photonics, this year allows you to specialise and showcase your expertise before graduating.

Focus Areas (in a string):
Applied physics, engineering design, quantum systems, materials science, electronics, computational modelling

Learning Outcomes (in a string):
Strong analytical and problem-solving skills, ability to integrate physics with engineering solutions, advanced technical knowledge, research capability, industry-ready project experience

Professional Alignment (Accreditation):
This program is accredited by Engineers Australia, meaning your engineering qualification is recognised internationally under the Washington Accord.

Reputation (Employability Rankings):
Monash consistently ranks among the top universities globally (QS Top 50), with strong graduate employability outcomes and industry connections across engineering and science sectors.

Experiential Learning (Research, Projects, Internships etc.)

At Monash, students in the Bachelor of Engineering and Science (Physics) don’t just learn theory—they apply it through real-world projects, cutting-edge laboratories, and collaborative industry experiences. From your first year, you’ll engage in practical engineering design challenges and physics experiments that develop problem-solving, teamwork, and technical skills. The program integrates workshops, research laboratories, and industry placements to ensure you graduate ready to tackle complex scientific and engineering problems.

Students gain hands-on experience through a variety of facilities, digital tools, and projects, including:

State-of-the-art laboratories: Physics labs for quantum mechanics, optics, materials testing, and electronics; Engineering design studios with prototyping and fabrication tools.
Industry placements and internships: PACE (Professional Awareness and Career Experience) program offering work-integrated learning in engineering and physics roles.
Group projects and collaborative design challenges: Across multiple years, students work on team-based projects simulating real engineering and research problems.
Specialised software and digital tools: MATLAB, SolidWorks, Python for simulations, COMSOL Multiphysics, and data analysis tools used in both physics and engineering coursework.
Field trips and observational experiences: Visits to research institutes, power plants, and astronomical observatories to connect theory with practice.
Research institutes and centres: Access to the Monash Institute of Medical Engineering, Australian Synchrotron collaborations, and Nanotechnology and Materials Research labs.
Libraries and learning hubs: Monash Library provides extensive physics and engineering collections, digital resources, and collaborative study spaces.

Progression & Future Opportunities

Graduates with a Bachelor of Engineering and Science (Physics) from Monash University are well‑positioned for a wide range of roles that combine technical rigor with real‑world impact, from engineering problem‑solving to scientific innovation. Many find themselves in roles such as Systems Engineer, Applied Physicist, R&D Engineer, or Data Analyst, working across industries that value both scientific insight and engineering expertise. The blend of physics and engineering means you’ll be attractive to employers building tomorrow’s technologies and solving global challenges:

Career support & employability services: Monash’s Career Connect offers tailored guidance, resume workshops, networking events with industry partners, and employer recruitment sessions to help you secure internships and graduate roles. Science and engineering students can also access the Engineering Career Ready Series and Science Industry Week for additional support.
Employment stats & real outcomes: According to Monash graduate outcomes data, over 70 % of bachelor graduates secure full‑time employment within six months of finishing their degree, underlining strong job market performance.
University–industry partnerships: You’ll benefit from connections with research institutions and organisations such as the Australian Synchrotron, CSIRO, and the Monash Centre for Atomically Thin Materials, which enhance internship, project, and research opportunities.
Long‑term accreditation value: This double‑discipline degree is professionally recognised and aligned with Engineers Australia standards under the Washington Accord, giving your qualifications international recognition and mobility for engineering careers worldwide.
Graduate outcomes: With a strong foundation in both physics and engineering, many alumni move into roles in technology, energy, aerospace, advanced materials, and consulting—or leverage their skills into graduate programmes and research roles.

Further Academic Progression:
After graduating, you can choose to extend your expertise through postgraduate study. Many students pursue specialised Master’s degrees in areas such as Professional Engineering to deepen their technical leadership skills, or Master of Science to focus on advanced physics research. Postgraduate pathways can also lead to doctoral research (PhD), positioning you for careers in academia, research institutions, or high‑level industry R&D.