Bachelor of Engineering (Honours) (Mechanical)

4 Years On Campus Bachelors Program

University of Technology Sydney

Program Overview

Program Overview
The Bachelor of Engineering (Honours) (Mechanical) at the University of Technology Sydney (UTS) gives you a broad and hands-on education in how things move and work — from tiny biomedical devices to massive jet engines and renewable energy systems. You’ll learn how to design, build and maintain mechanical systems that shape the modern world. This degree is perfect if you’re curious about how things work, enjoy maths and physics, and like solving real-world problems through innovation and design.

Curriculum Structure

Year 1:
Your first year builds a strong foundation in core engineering and mathematics. You’ll take subjects such as Mathematics 1, Introduction to Engineering Projects, and Physical Modelling, alongside an introduction to Mechanical Engineering and Materials and Manufacturing Engineering. These subjects help you understand how forces, materials and designs interact — the basis of how machines work.

Year 2:
In second year, you’ll dive deeper into the heart of mechanical engineering. You’ll study topics such as Machines and Mechanisms A, Thermofluids A, and Mechanical Design Fundamentals Studio 1. Courses like Engineering Project Appraisal and Applied Mechanics and Design B help you connect theory to real-world applications, giving you the tools to start designing complex systems.

Year 3 & Year 4:
Your final years focus on advanced study and professional preparation. You’ll take subjects such as Professional Engineering Communication, Collaboration in Complex Projects, and Designing Sustainable Engineering Projects. You’ll also complete major design and capstone projects that simulate industry scenarios — bringing together everything you’ve learned to solve real engineering challenges.

Focus Areas:
"Applied mechanics, dynamics and control; thermofluids and heat transfer; machines and mechanisms; materials and manufacturing; design innovation and sustainable engineering systems."

Learning Outcomes:
"Graduates will be able to analyse and solve complex mechanical engineering problems, design and evaluate mechanical systems, integrate solid-fluid-heat-power interactions, communicate professionally in engineering contexts, and engage in collaborative industry-focused projects."

Professional Alignment (Accreditation):
This degree is fully accredited by Engineers Australia at the level of Professional Engineer and is recognised internationally through the Washington Accord — meaning your qualification is respected and valued worldwide.

Reputation & Industry Connection:
UTS is ranked 9th in Australia and 96th in the world in the QS World University Rankings 2026. The UTS Faculty of Engineering and IT is consistently ranked among Australia’s top 10, known for its strong ties to industry with more than 1000 partner companies. This ensures students graduate with practical experience, professional networks and real-world skills that make them highly employable.

Experiential Learning (Research, Projects, Internships etc.)

If you’re thinking about a degree where you don’t just study machines and systems but actually get hands-on with them, the Bachelor of Engineering (Honours) (Mechanical) at the University of Technology Sydney (UTS) is a fantastic choice. It’s designed for students who want to learn by doing — from working on real builds and using advanced fabrication tools to collaborating with industry in modern labs and placements. By the time you graduate, you’ll have not only strong technical knowledge but also the confidence and practical experience to thrive in the field.

How you’ll gain practical skills and experience

You won’t just sit in lectures — you’ll be designing, building and testing mechanical systems throughout your degree. Whether it’s understanding fluid flow, heat transfer or solid-body dynamics, you’ll apply theory directly through hands-on projects as part of your core subjects.

Learning at UTS is practice-based and industry-connected, meaning you’ll be working on complex engineering systems that use emerging technologies — just like in the real world.

You’ll also spend time in ProtoSpace, UTS’s advanced fabrication lab, where you can design and prototype components using 3D printing, laser cutting, and other state-of-the-art tools.

The Faculty of Engineering and IT building houses a range of dedicated mechanical and mechatronic engineering labs — including robotics, human-robot interaction, and advanced manufacturing facilities. These spaces are built to replicate the environments you’ll encounter in professional engineering practice.

Plus, you’ll have access to world-class study spaces and libraries, designed to support group collaboration and technology-driven learning.

What experiential learning looks like in this program

Workshops and group design projects:
From your first year, you’ll be part of team-based design and manufacturing projects, applying what you learn in subjects like Applied Mechanics and Materials & Manufacturing.

Industry placements and professional experience:
You’ll complete professional engineering practice units and a Professional Experience Review, giving you real-world exposure through internships or work placements.

Use of professional software and tools:
Throughout subjects such as Physical Modelling, Engineering Project Appraisal and Designing Sustainable Engineering Projects, you’ll gain experience with industry-standard software for simulation, CAD, and modelling.

Access to advanced fabrication and prototyping tools:
In ProtoSpace, you’ll take your ideas from design to reality, using 3D printers, laser cutters, and other advanced additive manufacturing technologies.

Specialist mechanical and mechatronic labs:
You’ll explore and experiment in labs like the Infrastructure Robotics Lab and Human-Robot Interaction Lab, where you’ll work hands-on with robotics, sensors, and data systems.

Collaborative learning studios:
The UTS campus is designed for teamwork — with flexible classrooms, digital screens, and group-work zones that encourage creativity and innovation.

Professional recognition

The degree is fully accredited by Engineers Australia, ensuring your learning, projects and practical experience meet the highest professional engineering standards.

Progression & Future Opportunities

If you choose to study the Bachelor of Engineering (Honours) – Mechanical at the University of Technology Sydney (UTS), you’ll be setting yourself up for an exciting and versatile career. This degree prepares you to step confidently into roles such as mechanical engineer, design engineer, project engineer, or systems engineer, equipping you with the technical expertise, problem-solving ability, and leadership skills that employers are looking for.

Future Progression & Opportunities

At UTS, you’ll have access to excellent career support through employability programs, industry mentoring, and internships. With over 1,000 industry partners, including leading engineering firms and innovative startups, there are countless opportunities to gain real-world experience even before you graduate.

According to the Graduate Outcomes Survey, UTS undergraduates across all disciplines report a full-time employment rate of around 77.5% and a median starting salary of approximately AUD $70,000 just months after graduation — reflecting the strong reputation UTS graduates have among employers.

The engineering faculty also notes that demand for engineering management professionals is on the rise, with engineering manager positions expected to grow by 11.7% over the next five years. These roles come with attractive salaries, with median annual earnings of around AUD $187,700, highlighting the rewarding career trajectory available in the field.

The Mechanical Engineering major at UTS is fully accredited by Engineers Australia and recognised internationally under the Washington Accord. This means your qualification is globally respected, giving you the flexibility to work and build your career anywhere in the world.

When you graduate, you’ll be ready to contribute to innovative projects involving systems, machines, and advanced technologies across industries like automotive, energy, aerospace, manufacturing, and robotics. The breadth of the program ensures you can diversify or specialise as your interests and career goals evolve.

Further Academic Progression

After completing your degree, you might choose to advance your studies with a specialised Master’s degree in areas such as advanced mechanical systems, robotics, or energy engineering. You could also pursue a research PhD or take on professional development programs that lead to Chartered Engineer status. These pathways open doors to senior technical, management, and academic positions, helping you continue growing and shaping the future of engineering.