Bachelor of Engineering (Honours) (Mechatronic)

4 Years On Campus Bachelors Program

University of Technology Sydney

Program Overview

Program Overview
The Bachelor of Engineering (Honours) in Mechatronic Engineering at UTS lets you explore the exciting intersection of mechanical, electronic, software, and computing systems. You’ll learn to design smart machines, robots, and automated systems that think and act independently. This program is perfect if you’re curious about how things move, interact, and control themselves, and if you enjoy both the theory behind systems and the hands-on process of building them.

Curriculum Structure

Year 1: In your first year, you’ll lay a solid foundation in mathematics and engineering mechanics through units like Mathematics 1, Physical Modelling, and Introduction to Engineering Projects. You’ll also start exploring materials, manufacturing, and applied mechanics as you begin to focus on your mechatronics major.

Year 2: In your second year, you’ll build deeper expertise in mechatronics with units such as Embedded Mechatronic Systems, Machines and Mechanisms, and Sensors and Control for Mechatronic Systems. You’ll get hands-on experience in studios and design projects while preparing for professional engineering practice.

Year 3: Year three focuses on applying your specialist skills. You’ll study units like Dynamic Systems and Control, Programming for Mechatronic Systems, and Robotics Studio 1. This year also offers opportunities for industry exposure and professional work experience.

Year 4: Your final year brings everything together. Units such as Engineering Capstone, Robotics Studio 2, and Artificial Intelligence in Robotics let you deliver a major project, refine your specialist knowledge, and integrate your learning in a real-world engineering context.

Focus Areas

Robotics
Autonomous systems
Mechatronics integration
Control systems
Embedded design

Learning Outcomes
Graduates of this program will be able to:

Design, analyse, and develop complex mechatronic systems
Integrate mechanical, electronic, and software components effectively
Engage with professional engineering practice
Work successfully in multidisciplinary teams

Professional Alignment
This degree is fully accredited by Engineers Australia and is recognised internationally through the Washington Accord.

Reputation & Employability
UTS has strong industry connections with over 1,000 partner companies. Engineering graduates from UTS enjoy excellent labour-market outcomes, reflecting the faculty’s focus on practical experience and real-world readiness.

Experiential Learning (Research, Projects, Internships etc.)

From day one, you’ll be learning in environments that feel just like the real world of engineering. At UTS, mechatronic engineering isn’t just about theory: you’ll actually design, build, and test smart machines, control systems, and autonomous devices in purpose-built labs and industry-linked settings. The university’s modern facilities — including the FEIT building, robotics labs, ProtoSpace fabrication facility, and mechanical/mechatronic laboratories — give you hands-on access to advanced tools such as 3D printers, laser cutters, sensors, automation rigs, and collaboration studios. This approach means you’ll develop practical skills in prototyping, integrating mechanical, electrical, and software systems, teamwork, and connecting with industry, all of which prepare you for professional engineering careers.

Here’s how your learning will be immersive, practical, and fully supported:

Hands-on laboratories: You’ll spend time in mechanical and mechatronic engineering labs, where nine specialized spaces allow you to explore robotics, mechanics, automation, vibration and acoustics testing, and more.
ProtoSpace fabrication: Bring your ideas to life in ProtoSpace, where you can go from concept to prototype using digital fabrication tools like 3D printers and laser cutters.
Industry-connected teaching: The program focuses on practice-based learning that’s closely tied to industry, giving you insight into real-world engineering challenges.
Real project experience: Core subjects such as Introduction to Engineering Projects, Collaboration in Complex Projects, and Professional Engineering Practice ensure you’ll gain hands-on experience through group work and project-based tasks.
Professional recognition: The degree is fully accredited by Engineers Australia and recognized under the Washington Accord, meaning your qualification meets real-world professional engineering standards.
Cutting-edge infrastructure: The FEIT building offers dedicated spaces for collaborative work, flexible classrooms with moving furniture, advanced computing facilities, and digital screens, all designed to support hands-on, interactive learning.

Progression & Future Opportunities

Graduate Outcomes Summary:
Graduates from this program are well-equipped to take on advanced roles that blend mechanical, electronics, software, and control systems engineering. This provides an excellent foundation for careers in robotics, automation, smart manufacturing, and autonomous systems. Typical roles include Mechatronic Engineer, Automation Engineer, Robotics Systems Engineer, and Control Systems Engineer.

Progression & Future Opportunities:

University services to support employment:
UTS offers dedicated career support through its Careers & Employment team. Students can access industry placement opportunities and tap into a network of over 1,000 partner companies, helping them gain valuable real-world experience and internships.

Employment stats and salary figures:
According to UTS graduate outcomes, around 77.5% of domestic undergraduate students were employed full-time within four months of graduating, with a median salary of AUD $70,000. Engineering manager roles are particularly promising, showing an 11.7% growth in the labour market over five years and a median annual salary of AUD $187,700.

University–industry partnerships:
The program emphasizes hands-on learning and strong industry engagement. UTS works with over 1,000 industry partners who help shape the curriculum and provide students with practical, real-world experience.

Accreditation value:
The degree is fully accredited by Engineers Australia and is internationally recognized through the Washington Accord, ensuring your qualification holds value both in Australia and abroad.

Graduation outcomes:
As a graduate in mechatronic engineering, you’ll be prepared for careers in advanced machinery and robotics manufacturing, mining and industrial sectors, and research areas such as nanotechnology and robotics.

Further academic progression:
After completing this honours-level bachelor’s degree, you could continue your studies with a master’s degree, such as the Master of Engineering (Research), or specialise in areas like robotics, autonomous systems, or biomedical devices. For those interested in innovation, development, or academic careers, research pathways like a PhD are also an option.