Bachelor of Engineering (Honours) (Mechatronic & Robotic Engineering)

Be a part of a team solving real industry problems, from pioneering new eco-materials, pushing the frontiers in aerospace, renewable energy implementation, and development of smart robotics. Graduate ready for the most cutting-edge jobs of the future.

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About the Course

Be a part of a team solving real industry problems, from pioneering new eco-materials, pushing the frontiers in aerospace, renewable energy implementation, and development of smart robotics. Our Mechatronics degree explores a combination of mechanical, electrical, control, and software disciplines to develop smarter machines, devices, and processes. It will build your passion for solving hands-on problems, interacting with physical systems, learning to prototype and customise for optimal performance. Graduate ready for the most cutting-edge jobs of the future, with the practical skills to integrate state-of-the-art technology and robotics to transform tomorrow’s economy well into the future.

Course Entry Requirements

ATAR -71.00 or equivalent Pre-requisites - English (Units 3 & 4, C), Mathematical Methods (Units 3 & 4, C), or equivalent. Inherent requirements - There are inherent requirements that must be met in order to successfully complete this degree. Inherent requirements are fundamental skills, capabilities and knowledge that students must be able to demonstrate in order to achieve the essential learning outcomes of the degree, while maintaining the academic integrity of the degree. Please read and understand the inherent requirements specific to the Bachelor of Engineering (Honours) before applying. Proof of meeting the English Language Proficiency requirements is also required.

Course Structure

Recommended study pattern

Year 1

ENP1101 Student Engineer Induction

ENP1102 Student Engineer Portfolio

ENP1001 Engineering Fundamentals A

ENM1600 Engineering Mathematics

ENP1111 Sustainable & Humanitarian Engineering Project

MTR1201 Mechatronic Engineering Foundation A

ENP1002 Engineering Fundamentals B

ENP1112 Student Engineer Project (Engineering Workplaces)

EEE1201 Electrical & Electronic Engineering Foundation A

CVL1201 Civil Engineering Foundation A

Year 2

ENP2103 Engineering Affiliate Portfolio

MCH2311 Engineering Subsystem Design Project

EEE1202 Electrical & Electronic Engineering Foundation B

MTR2303 Mechatronic Intermediate Engineering Topics

MTR2312 Mechatronic Engineering Operations & Maintenance Project

ENP2104 Engineering Associate Portfolio

ENP2313 Engineering Associate Capstone Project

3 x Electives

Year 3

ENP3107 Transition to Professional Engineer

MTR3301 Mechatronic Engineering Advanced A

MTR3314 Sustainable Systems Engineering Project

ENP3102 Engineering Professional Management

MTR3302 Mechatronic Engineering Advanced B

MTR3315 Professional Engineer Innovation Project

ENP3103 Engineering Methodology Research

2 x Electives

Year 4

MTR4301 Professional Engineering Advanced Topics

ENP4111 Professional Engineer Research Project

ENP4108 Engineering Professional Portfolio

ENP4313 Engineering Professional Team Capstone Project

3 x Electives

Award requirements

Completion of 32 units as outlined in the Recommended Study Pattern section.

Exit points

Associate Degree of Engineering, Diploma of Engineering and Related Technologies.

On completion of this program, students should be able to:

  1. Display coherent and comprehensive knowledge of historical, contemporary and emerging theories and concepts that underpin relevant engineering disciplines.
  2. Recognise the social purpose of engineering and analyse the relationship between human-made products and systems, and community needs.
  3. Apply well-researched, innovative, industry-relevant systems approaches to solve a range of engineering problems, and to address issues of sustainable practice in diverse environmental, technical and social contexts.
  4. Apply relevant project management skills and formulate design processes to enable the delivery of engineering projects within given project constraints.
  5. Make appropriate autonomous judgements by critically evaluating evidence, identifying and analysing ethical issues and applying cultural competencies, including those relevant to indigenous peoples.
  6. Communicate effectively in English and interpret information for diverse audiences using a range of high-level oral, written and technology-based approaches; and apply effective competencies as a leader, team member and individual within the professional domain.
  7. Engage in lifelong learning through critical reflection, and be accountable for their personal and professional actions by managing and monitoring personal performance.