Bachelor of Engineering Honours (Mechatronic Engineering)

4 Years On Campus Bachelors Program

University of Sydney

Program Overview

Program Overview:
The Bachelor of Engineering (Honours) in Mechatronic Engineering at the University of Sydney is a four‑year degree that combines mechanical, electrical, electronic, and software engineering. It’s designed for students who are fascinated by robotics, automation, and intelligent systems, and who want a hands‑on, multidisciplinary engineering education. You’ll gain the skills to design and build smart, computer‑controlled machines and systems that solve real-world problems.

Curriculum Structure:

Year 1: You’ll start with the fundamentals of engineering, including materials, mechanics, and electromechanical systems. Courses like Introduction to Engineering Materials and Introduction to Electromechanical Systems will help you understand how different engineering disciplines come together in mechatronic systems, laying the groundwork for more specialised studies later.

Year 2: In your second year, you’ll dive deeper into engineering analysis and system dynamics. Units such as Engineering Analysis and Engineering Dynamics will strengthen your mathematical and modelling skills, while courses like Electronic Devices and Circuits will introduce you to integrating electronics with mechanical design. This is where you begin bridging the gap between multiple engineering disciplines.

Year 3: This year focuses on mechatronic design. Units like Introduction to Mechatronic Design and Mechatronics 2 will give you hands-on experience designing and prototyping systems that combine sensors, actuators, controllers, and software. You’ll also tackle advanced topics such as System Dynamics and Control to develop a strong understanding of control systems.

Year 4 (Honours year): In your final year, you’ll undertake a major embedded honours research or design project, such as the Major Industrial Project. This gives you the chance to specialise in a particular area, work closely with industry or research teams, and showcase your ability to independently design, analyse, and innovate in mechatronic engineering.

Focus Areas:

Mechatronic systems design
Control engineering
Robotics and intelligent automation
Electronics and embedded systems
Materials and mechanical design

Learning Outcomes:
Graduates of this program will be able to:

Conceive, design, and build integrated mechanical-electronic-software systems
Apply mathematics, modelling, and simulation to solve engineering problems
Work effectively in multidisciplinary teams and communicate complex ideas clearly
Conduct independent research or design projects in mechatronic engineering

Professional Alignment (Accreditation):
The program meets professional engineering standards in Australia and is structured to support your future career as a professional engineer.

Reputation and Employability:
The University of Sydney is ranked #25 in the QS World University Rankings 2026. Graduates benefit from strong employability prospects, supported by dedicated industry projects, career services, and hands-on experience throughout the degree.

Experiential Learning (Research, Projects, Internships etc.)

If you’re thinking about the Bachelor of Engineering (Honours) (Mechatronic Engineering) at the University of Sydney, you’ll be getting hands‑on, real-world experience right from the very beginning.

You won’t just be learning theory—you’ll be working with the same equipment, software, and systems that professional engineers use in industry today. This program blends mechanical, electronics, software, systems, and control engineering, so you’ll be designing smart machines, robots, and automated systems. The university highlights that you’ll have the chance to use the latest equipment and instrumentation, including facilities like the Australian Centre for Field Robotics, one of the largest robotics research institutions in the world.

The Faculty of Engineering also works closely with over 1,200 industry partners, giving you access to internships, work placements, capstone projects, and future graduate opportunities.

Here’s a closer look at what experiential learning actually looks like in this program:

Equipment & laboratories: You’ll get hands-on with modern instrumentation across mechatronics, digital electronics, control systems, machine dynamics, and robotics.

Software & tools: Projects might involve microprocessors, computer control, imaging and sensor systems, digital twins, and autonomous platforms. In research internships, students often use tools like ROS, imaging and image-processing software, and 3D reconstruction algorithms.

Group & project‑based work: You’ll work in teams to design, build, and race machines. For example, you could participate in the internal combustion car project for the Formula SAE competition, which is a core part of the mechatronics curriculum.

Internships & industry placements: The degree provides opportunities through the Engineering Vacation Research Internship Program (summer/winter), as well as broader work placements with more than 1,200 industry partners.

Research institutes and school support: You’ll be part of the School of Aerospace, Mechanical, and Mechatronic Engineering, which focuses on teaching and research excellence in robotics, intelligent systems, and materials.

Transitions into real‑world engineering: Practical industry experience is built into the program so that when you graduate, you’ll leave with more than knowledge—you’ll have proven skills in leadership, communication, and practical engineering.

Progression & Future Opportunities

Graduate Outcomes & Job Roles

Graduates of this program are well-equipped to take on advanced engineering roles that involve design, automation, and systems thinking. Some common career paths include:

Mechatronics Engineer
Robotics & Automation Engineer
Systems Engineer (in manufacturing or transportation)
Product Design & Development Engineer

Progression & Future Opportunities

University Services to Support Employment:
The Faculty of Engineering offers a dedicated Careers & Employability service, helping students explore career options each semester, plan their path, build industry-relevant skills, and connect with alumni and employers.

Top-performing engineering students can also apply for the Engineering Sydney Industry Placement Scholarship (ESIPS), which provides a six-month, full-time industry project with a partner organization. This is credit-bearing and a fantastic way to gain hands-on experience.

Employment Stats & Salary Figures:
While the university does not publish specific salary data for this degree, engineering graduates in Australia typically earn above-average salaries—mechanical and electrical engineers, for example, often earn over A$100,000 per year.

The broader employment rate for university graduates is strong, with many students securing roles with leading employers such as Adobe, Google, and Airbus even while completing their studies.

University–Industry Partnerships:
The Faculty collaborates with over 1,200 industry partners, giving students access to research opportunities and practical projects. Programs like ESIPS place students directly in companies to work on major, real-world projects.

Long-Term Accreditation Value:
This degree is accredited by Engineers Australia and is recognized internationally through the International Engineering Alliance (Washington Accord). This means your qualification has global relevance and can support international career mobility.

Graduation Outcomes:
By the end of this degree, you will have developed strong skills in digital electronics, microprocessors, control systems, robotics, mechanics, and design, along with professional capabilities in management and communication.

This wide-ranging skill set prepares you for work in industries such as manufacturing, automotive, aerospace, biotechnology, transport, automation, and defence.

Further Academic Progression:

After completing this honours Bachelor degree, there are several strong pathways to continue your studies:

You could pursue a Master of Professional Engineering (or similar) in mechanical, mechatronic, or automation engineering to deepen specialist knowledge or develop management skills.
A research-based Master’s or PhD in robotics, autonomous systems, or advanced manufacturing is ideal if you are interested in research, teaching, or high-level specialist roles.
You could also combine your engineering degree with a second discipline—such as commerce, science, or law—to broaden your career options in management, consultancy, or entrepreneurship.