Mechatronic Engineering

Mechatronics is the discipline concerned with the integration of mechanical, electronic and software engineering.

What is Mechatronic Engineering?

Mechatronics is an exciting field because it combines the knowledge and skills of these three engineering disciplines. A detailed understanding of how mechanical, electronic and software engineering areas interact enables the development of ‘smart’ products and systems such as computer-controlled robots, washing machines, automotive equipment, medical imaging systems, wind and wave generators, advanced CNC machines and hybrid and electric vehicles. Mechatronics has applications in a range of fields, including robotics, medical and assistive technology, human-machine interaction, manufacturing, unmanned aerial vehicles and education.

What You Study

Core Engineering studies include mathematics, systems design and engineering computation. Mechatronic Engineering study areas include control systems, programming, dynamics of machines, and electrical network analysis and design. At the Masters level of this course the emphasis is on industry interaction, featuring guest lectures in the areas of project management, intellectual property, ethics and patenting. In their final year, students undertake an industry-focussed project, where they will exercise their technical knowledge and research skills with access to state-of-the-art facilities.

Career Outcomes

Graduates have advanced skills and knowledge that can be used in a variety of interesting careers, such as developing ‘smart’ products and systems in the manufacturing or robotics industries. A wealth of job opportunities are available with companies that use advanced automation equipment and computer integrated manufacturing systems, in fields such as aerospace and advanced manufacturing. Graduates can participate in and lead multidisciplinary teams in areas such as product development, manufacturing, computing and electronics, hardware and software, mining engineering and robotics.

Dual accreditation with Engineers Australia (provisional) and EUR-ACE® allows graduates of the Master of Engineering, or the Master of Spatial Information Science, to practice as professional engineers virtually anywhere in the world. For more information see our accreditation page.

How to Become a Mechatronic Engineer

Step 1: Mechanical Systems

The Mechanical Systems major may be taken as a part of the following degree. You can find out more on the following websites:

Bachelor of Commerce students may choose the Mechanical Systems sequence, and study between eight and ten engineering subjects as the breadth component of their degree. You can find out more about the degree on the following website:

Duration

300 credit points / 3 years full-time

Fees

Domestic Students

Commonwealth Supported Places: Fees per 100 credit points (depending on subjects taken) $4547–$6714 (with 10% up-front discount)

Commonwealth Supported Places are guaranteed until 2019 for the duration of the undergraduate degree and Master of Engineering course.

International Students

Fees per 100 credit points (depending on subjects taken) $28,788–$32,600


For more information please refer to the Fees page on the University’s Future Students website.

Course Structure

Sample Course Plan — Bachelor of Science (Mechanical Systems)
This example is provided as a guide only. Subject availability will vary from year to year and there is no guarantee that the listed subjects will be available in future years. This information is for students with VCE Units 3 and 4 Specialist Mathematics.
Year 1 Semester 1 Engineering Systems Design 1 Calculus 2 Physics 1 Breadth
Year 1 Semester 2 Engineering Systems Design 2 Linear Algebra Physics 2: Physical Science & Technology Breadth
Year 2 Semester 1 Engineering Computation Engineering Mathematics Science elective Breadth
Year 2 Semester 2 Foundations of Electrical Networks Engineering Mechanics Science elective Breadth
Year 3 Semester 1 Mechanical Dynamics Mechanics & Materials Science elective Breadth
Year 3 Semester 2 Mechanical Design Fluid Mechanics and Thermodynamics Science elective Breadth

Step 2: Master of Engineering (Mechatronics)

Graduates with a Mechanical Systems major (with a 65% average) are eligible for a two-year Master of Engineering (Mechanical) or a Master of Engineering (Mechatronics).

Sample Course Plan —Master of Engineering (Mechatronics)
Year 4 Semester 1 Control Systems Programming the Machine Electrical Network Analysis and Design Digital System Design
Year 4 Semester 2 Mechatronics Design Object Oriented Software Development Dynamics of Machines Solid Mechanics
Year 5 Semester 1 Manufacturing Systems Algorithms and Data Structures Advanced Motion Control Mechanical Project
Year 5 Semester 2 Advanced Control Systems Embedded System Design Mechatronics elective Mechanical Project
Mechanical Systems subjects Electives Breadth

Make an Enquiry

Please call or email Eastern Precinct Student Centre:

13 MELB (13 6352)
+61 3 9035 5511 (overseas)

E: 13MELB@unimelb.edu.au

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Scholarships

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Engineering Study Guide

Download Engineering Study Guide [PDF 2.9MB]

Andrew George

Andrew George

Aeronautical Engineer, BAE systems

Andrew George studied mechanical engineering during his undergraduate degree at the University of Melbourne, but soon found that the broad foundation of his studies meant his skills were also highly applicable in the areas of mechatronics and aeronautical engineering.

He secured his role as an Aeronautical Engineer at BAE systems, working on cutting edge technology, thanks to a final year project he undertook at BAE, which gave him access to a graduate role.

It’s good to have the breadth of knowledge you get at Melbourne. It means it’s easier to go into the mining industry, the aerospace industry or the finance industry and apply that knowledge to whichever application interests you. Any field seems approachable and your skills are applicable.

You need a very broad understanding of a number of systems, mechanical and electrical to be effective in the workplace. As we move into the future, more and more applications will be integrating mechanical and electronic systems together.