Bachelor of Engineering Honours
Mechatronic Engineering with Space stream
| This page was first published on 11 November 2025 View details of the changes below. |
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Overview
Mechatronic Engineering with Space stream is a dynamic, multidisciplinary field that integrates mechanical, electrical, and electronic engineering, systems engineering, and computer science. It underpins the development of robotics, automation, and intelligent systems that are shaping the future of both terrestrial and space technologies.
Mechatronic with space engineers play a critical role in the design and operation of autonomous systems, robotic arms, spacecraft mechanisms, satellite subsystems, precision instrumentation, and control systems for space missions. Their expertise is essential to enabling intelligent, resilient systems that can operate in the harsh and remote environments of space.
Graduates are equipped to work across a wide range of industries, including aerospace and satellite technology, space exploration, remote robotics, smart manufacturing, biomedical systems, and automation in sectors such as agriculture, mining, defence, and astronomy.
The Bachelor of Engineering Honours (Mechatronic Engineering with Space) places particular focus on space-relevant technologies—such as embedded systems, space-grade robotics, digital control, sensing and actuation, and real-time software development. Students will also build strong foundations in systems design, microprocessors, and computer control, while developing project management and communication skills essential for leading complex, multidisciplinary space engineering projects. Alternatively, you may choose to continue your studies through a graduate program at Sydney, building on the strong platform this degree provides.
For a standard enrolment plan for Mechatronic Engineering with Space visit CUSP.
Learning outcomes
On successful completion of the Mechatronic Engineering with Space stream students will be able to:
| No. | Mid-level learning outcomes |
|---|---|
| 1 | Demonstrate mastery of established analytical methods commonly used in mechatronic engineering, underpinned by fundamental principles and extended to applications in space systems and environments. |
| 2 | Demonstrate proficiency with tools, methods, principles, and technical knowledge central to mechatronics—including embedded systems, mechatronic systems design, microcontrollers, data communication—within the context of autonomous and intelligent space systems. |
| 3 | Respond effectively to non-routine, complex mechatronic problems, including those arising from the constraints and uncertainties of the space environment. |
| 4 | Apply diverse strategies to develop and implement innovative ideas in mechatronic systems, such as robotics, automation, and control solutions for space missions and infrastructure. |
| 5 | Plan, design, and review safe, efficient, and robust mechatronic systems, services, and policies with specific attention to reliability and redundancy requirements in space applications. |
| 6 | Recognise and respond to the interdisciplinary context of mechatronic engineering, including its integration with systems engineering, and space operations. |
| 7 | Find, interpret, evaluate, and manage research to support decision-making in mechatronic engineering, with consideration for the evolving challenges in space system development. |
| 8 | Present compelling oral, written, and graphic evidence to communicate mechatronic with space engineering concepts, designs, and solutions to both technical and non-technical audiences. |
| 9 | Contribute as an individual and team member to multidisciplinary and multicultural teams to deliver projects involving space robotics, autonomous vehicles, and other space-relevant mechatronic systems. |
| 10 | Apply relevant values, professional standards, and engineering judgement to ensure the economic, social, and environmental sustainability of mechatronic systems for both planetary and space-based applications. |
