Bachelor of Engineering (Honours) (Mechanical & Mechatronic)

4 Years On Campus Bachelors Program

University of Technology Sydney

Program Overview

Program Overview:
The Bachelor of Mechatronic Engineering (Honours) at the University of Technology Sydney (UTS) offers an exciting combination of mechanical, electronics, computer systems and software engineering. This program equips you with the skills to design and build the intelligent machines, robots and automation systems shaping the future. It’s ideal for students who are curious, enjoy hands-on problem solving and want to work at the intersection of hardware, software and systems engineering.

Curriculum Structure:

Year 1:
Your first year lays the foundation in core engineering and mathematics subjects such as Mathematics 1 (33130) and Physical Modelling (68037). You’ll also explore introductory units like Introduction to Mechanical Engineering (48610) and Introduction to Mechatronics Engineering (41099), helping you develop a solid understanding of modelling, materials and design thinking.

Year 2:
In your second year, you’ll move deeper into the mechanics of machines and mechatronic systems. Key subjects include Machines and Mechanisms A (41056), Embedded Mechatronic Systems (48622) and Sensors and Control for Mechatronic Systems (41014). You’ll also begin developing your professional engineering skills — preparing you for the workplace and industry engagement.

Year 3:
Your third year combines advanced technical learning with real-world experience. You’ll take on subjects such as Dynamic Systems and Control A (41058) and Mechanical Design Fundamentals Studio 2 (41060), alongside an Engineering Work Experience (41028) placement. This is where theory meets practice, allowing you to apply your skills in a professional environment.

Year 4:
In your final year, you’ll undertake a major capstone project that integrates everything you’ve learned. Units such as Engineering Capstone (41030) and Design in Mechanical and Mechatronic Systems (43019) challenge you to design and realise complex systems — demonstrating your capability to future employers and industry partners.

Focus Areas:
Mechanical systems design, intelligent control and automation, robotics, and mechatronic integration.

Learning Outcomes:
Graduates will be equipped to model, design and implement complex mechatronic systems, analyse the interactions between mechanical, electrical and software components, and work effectively in multidisciplinary engineering teams. You’ll also be prepared to adapt to new and emerging technologies in a rapidly evolving industry.

Professional Alignment:
This degree is fully accredited by Engineers Australia and recognised internationally under the Washington Accord, ensuring your qualification meets global professional engineering standards.

Reputation and Employability:
The University of Technology Sydney is ranked 9th in Australia and 96th globally in the QS World University Rankings 2026, reflecting its strong reputation for graduate employability and industry-focused education.

Experiential Learning (Research, Projects, Internships etc.)

At the heart of the Bachelor of Engineering (Honours) in Mechanical & Mechatronic Engineering at the University of Technology Sydney (UTS) is a strong focus on learning by doing. Rather than just studying theory, you’ll be building real, practical skills from the very start. Throughout your degree, you’ll design and prototype, work in studios, complete a professional placement, take on a final-year research project, and use industry-standard tools and facilities. By the time you graduate, you won’t just understand how mechanical-electrical-software systems work—you’ll know how to design, build, and implement them yourself.

Here’s how experiential learning comes to life in the UTS program:

Experiential learning highlights:

Early hands-on experience: From your second year, you’ll dive into major-specific studio work in areas like mechatronics, robotics, and thermofluids. These sessions are all about design and prototyping, helping you connect theory with real engineering practice.
Professional industry placement: In your third year, you’ll step into the real world with a professional work placement. This gives you invaluable experience in an actual engineering environment, where you’ll see how projects are managed, how teams collaborate, and how theory turns into practice.
Capstone honours research project: Your fourth year brings everything together. You’ll complete a major research project alongside two hands-on studio units, giving you the chance to apply your learning in a practical, supervised project that mirrors real industry challenges.
Access to cutting-edge facilities: You’ll get to use UTS’s advanced labs and workshops, including ProtoSpace, the university’s state-of-the-art additive manufacturing and prototyping hub.
Industry-standard tools and techniques: Throughout your studies, you’ll work with tools like Computer Aided Design (CAD), modelling software, control systems for robotics, and programming—skills that are highly valued in today’s engineering world.
Strong industry connections: With more than 1,000 industry partners, UTS ensures your projects, hackathons, and studio work are closely aligned with real engineering needs and innovations.
Supportive campus environment: The UTS City Campus offers a dynamic learning space where academic, professional, and social experiences come together—backed by resources like the UTS Library and collaborative learning areas.

If you’re someone who loves to build, experiment, and bring ideas to life—someone who learns best by doing—this program is the perfect place to turn your creativity into real engineering impact.

Progression & Future Opportunities

If you choose to enrol in the Bachelor of Engineering (Honours) in Mechanical & Mechatronic Engineering at the University of Technology Sydney (UTS), you’ll be setting yourself up for an exciting and future-ready engineering career — whether that’s designing advanced machines, developing intelligent systems, or working with cutting-edge robotics. Graduates from this program often move into roles such as Mechanical Engineer, Mechatronics Engineer, Automation or Robotics Engineer, or Systems Designer.

Progression & Future Opportunities

University support and career services:
At UTS, you’ll have access to UTS Careers, which offers personalised one-on-one career guidance, peer career advisors, and practical support such as resume feedback, interview preparation, and connections to internships and job opportunities. These services are designed to help you confidently transition from university to professional life.

Graduate employment and outcomes:
Engineering graduates in Australia enjoy consistently strong career prospects, with approximately 87% securing full-time employment shortly after graduation. The median starting salary for engineering graduates sits around AUD $71,500, reflecting the high demand for skilled professionals in this field.

Industry recognition and global opportunities:
The program is fully accredited by Engineers Australia and recognised under the Washington Accord, meaning your qualification is internationally respected. This ensures that your degree not only opens doors across Australia but also enables you to work globally as a qualified professional engineer.

Long-term professional value:
Because of this accreditation, you’ll graduate with a recognised professional engineering qualification, which enhances both your career mobility and your potential to take on leadership roles in multidisciplinary engineering teams — whether in Australia or abroad.

Future job demand:
Engineering professionals continue to be listed among the top 20 most in-demand occupations in Australia. With rapid advances in automation, robotics, and smart systems, your expertise will remain highly relevant and sought after well into the future.

Further Academic Progression

After completing your honours degree, you can take your learning further through postgraduate study. Many graduates choose to pursue a Master’s in Engineering (for example, in advanced mechanical, robotics, or automation engineering), a research-based Master’s or PhD, or a specialised postgraduate diploma in areas like control systems or intelligent robotics. These paths allow you to deepen your technical expertise, move into research and innovation, or even step into academic or leadership roles within the engineering sector.