Bachelor of Engineering Honours (Electrical Engineering) and Bachelor of Science

5 Years On Campus Bachelors Program

University of Sydney

Program Overview

The Bachelor of Engineering Honours (Electrical Engineering) and Bachelor of Science at University of Sydney is a comprehensive 5-year dual degree designed for students passionate about engineering innovation, scientific discovery, and emerging technologies. This program combines advanced engineering education with scientific research and analytical training, preparing graduates for careers across electrical engineering, renewable energy, telecommunications, automation, data science, and technology-driven industries.

Curriculum Structure

Year 1 – Foundations in Engineering and Science:
Students begin by building a strong foundation in mathematics, physics, engineering principles, and scientific inquiry. Subjects such as Engineering Mechanics, Introduction to Electrical Engineering, Physics, and Mathematics develop essential analytical thinking, technical problem-solving, and quantitative reasoning skills that underpin both engineering and scientific practice.

Year 2 – Core Electrical Systems and Scientific Principles:
The second year introduces specialised electrical engineering concepts through units such as Circuit Theory and Digital Systems, while science studies may include subjects like Chemistry, Biology, or advanced mathematics. Students strengthen their understanding of electrical systems, scientific methodologies, and computational analysis while gaining practical laboratory experience.

Year 3 – Advanced Engineering Applications and Data Analysis:
Students progress into more advanced engineering topics including Control Systems and Electromagnetic Fields while also studying scientific and analytical subjects such as Data Analysis and Statistical Methods. This year emphasises hands-on learning, systems modelling, research skills, and solving complex real-world engineering challenges.

Year 4 – Innovation, Communication, and Interdisciplinary Learning:
The fourth year focuses on advanced engineering systems, communication technologies, and interdisciplinary applications of science and engineering. Students may explore renewable energy systems, telecommunications, intelligent technologies, automation, and scientific research projects while further strengthening teamwork, project management, and innovation skills.

Year 5 – Capstone Project and Professional Engineering Practice:
The final year culminates in a major capstone project where students integrate engineering and scientific knowledge to solve industry-relevant problems. Advanced subjects such as Power Systems and Communication Systems prepare students for professional engineering practice while developing leadership, collaboration, and critical thinking capabilities highly valued by employers.

Focus Areas:

Electrical Engineering
Data Science and Analytics
Renewable Energy Systems
Telecommunications Engineering
Automation and Intelligent Systems
Scientific Research and Innovation

Learning Outcomes:

Graduates develop:

Advanced problem-solving and analytical thinking skills
Technical proficiency in electrical engineering systems and scientific analysis
Strong teamwork, communication, and project management capabilities
The ability to design and implement innovative engineering solutions
Research and computational skills applicable across engineering and scientific industries

Professional Alignment (Accreditation):

The engineering component of the degree is accredited by Engineers Australia, supporting professional recognition, future Chartered Engineer pathways, and international career mobility.

Reputation and Employability:

University of Sydney is globally recognised for excellence in engineering, science, research, and graduate employability. The university consistently ranks among the world’s leading institutions and maintains strong partnerships with industry, research organisations, and government agencies. Graduates are highly sought after across sectors including renewable energy, telecommunications, automation, advanced manufacturing, scientific research, defence technology, and smart infrastructure both in Australia and internationally.

Experiential Learning (Research, Projects, Internships etc.)

At the University of Sydney, students pursuing the Bachelor of Engineering Honours (Electrical Engineering) and Bachelor of Science programs are immersed in a rich environment that emphasizes experiential learning. This hands-on approach not only enhances theoretical knowledge but also equips students with practical skills that are essential in today’s job market. With state-of-the-art facilities and cutting-edge tools, students have the opportunity to engage in real-world projects, collaborate with peers, and gain invaluable experience that prepares them for their future careers.

Here are some key aspects of experiential learning in these programs:

- Laboratories and Research Facilities: Students have access to specialized laboratories, such as the Electrical Engineering laboratories, where they can work on projects involving circuit design, robotics, and renewable energy systems.

- Group Projects: Collaborative projects are a core component of the curriculum, allowing students to work in teams to solve complex engineering problems, fostering teamwork and communication skills.

- Internships and Industry Partnerships: The university has strong connections with industry leaders, providing students with internship opportunities that offer real-world experience and networking possibilities.

- Software and Digital Tools: Students utilize industry-standard software such as MATLAB, Simulink, and AutoCAD, which are essential for modeling, simulation, and design in electrical engineering.

- Field Trips and Industry Visits: The program includes field trips to various engineering firms and research institutes, giving students insights into the practical applications of their studies.

- Libraries and Research Institutes: The University of Sydney boasts extensive library resources and research institutes, such as the Sydney Institute of Agriculture, which support students in their academic and research endeavors.

- Innovation and Design Spaces: The university provides access to innovation hubs and maker spaces, where students can prototype and test their ideas using advanced tools and technologies.

By choosing to study at the University of Sydney, you will not only gain a solid academic foundation but also the practical experience that employers value. This combination of theory and practice is what sets our graduates apart in the competitive job market.

Embark on your journey in engineering and science with us, and take the first step towards a rewarding career!

Progression & Future Opportunities

Graduates of the Bachelor of Engineering Honours (Electrical Engineering) and Bachelor of Science at University of Sydney develop a highly versatile combination of advanced engineering expertise and scientific knowledge that prepares them for careers across technology, research, energy, telecommunications, automation, and innovation-driven industries. The dual-degree structure equips students with strong analytical, technical, and problem-solving capabilities highly valued by employers globally. Graduates commonly pursue careers as electrical engineers, electronics engineers, systems engineers, data and research specialists, automation engineers, and telecommunications professionals. In Australia, professionals working in electrical engineering and technology sectors typically earn median annual salaries ranging from approximately AUD $100,000–$130,000 depending on industry sector, experience, and technical specialisation.

This strong graduate employability is supported through several important opportunities and industry-focused advantages:

The University of Sydney Careers Centre provides students with career coaching, networking opportunities, internship support, employability workshops, resume and interview preparation, and graduate recruitment programs.
Students gain practical experience through advanced laboratories, collaborative engineering projects, research activities, industry-linked learning, and real-world problem-solving experiences integrated throughout the degree.
The university maintains strong partnerships with engineering firms, research organisations, technology companies, and government agencies, helping students access internships, placements, and professional networking opportunities.
Students develop technical proficiency using industry-standard software such as MATLAB, Simulink, and AutoCAD commonly used across engineering and scientific industries.
The engineering program is accredited by Engineers Australia, supporting future Chartered Engineer pathways and enhancing international professional recognition and mobility.
Graduates are prepared for careers across industries including renewable energy, telecommunications, advanced manufacturing, automation systems, robotics, defence technology, data analysis, scientific research, and smart infrastructure.
Access to world-class facilities such as the Sydney Nanoscience Hub and leading research institutes allows students to engage with cutting-edge research, emerging technologies, and interdisciplinary innovation projects.
The Bachelor of Science component strengthens graduates’ research capabilities, analytical thinking, computational skills, and flexibility to work across both engineering and scientific sectors.
The increasing global demand for professionals skilled in electrical systems, automation, data-driven technologies, renewable energy, and advanced scientific research creates strong long-term employment opportunities both in Australia and internationally.

Further Academic Progression:
After completing this dual degree, graduates may continue into postgraduate coursework or advanced research pathways in engineering, science, and related technology disciplines. Potential study options include a Master of Engineering, Master of Data Science, Master of Renewable Energy, Master of Information Technology, or higher research qualifications such as a Doctor of Philosophy (PhD). Graduates may also pursue specialised certifications and professional development in areas including automation systems, telecommunications engineering, artificial intelligence, embedded systems, renewable energy technologies, robotics, and advanced scientific research.