Overview

Mechatronic engineering revolutionizes modern industry by fusing mechanical design, electronics, computing, and automated control into intelligent smart systems. Students enrolled in the Bachelor of Engineering (Hons) in Mechatronic Engineering at Curtin University gain comprehensive training in robotics, automated manufacturing, sensor technology, and cyber-physical systems. The curriculum integrates core mechanical and electronic engineering principles with software development, allowing learners to design autonomous machinery from concept to physical creation. Learning occurs in advanced mechatronics, robotics, and automation laboratories equipped with modern hardware, guided by research-active engineering academics. This program is ideally suited for innovative problem solvers and tech-minded individuals passionate about robotics and automated technology. Graduates step forward fully equipped to pursue dynamic engineering careers in robotics development, industrial automation, manufacturing, and autonomous vehicle design.

What You'll Learn

Mechanical design principles, solid mechanics, dynamics, and material selection.

Electrical circuit analysis, power electronics, sensors, and actuator systems.

Control systems engineering, feedback mechanisms, and industrial automation techniques.

Embedded microcontrollers, real-time programming, and signal processing.

Robotics design, kinematics, machine vision, and artificial intelligence integration.

Engineering project management, systems engineering design, safety protocols, and professional ethics.

Learning Outcomes

Upon completing this program, students develop an integrated, multi-disciplinary understanding of automated technology across physical mechanical structures, electronic circuits, embedded code, and high-level control algorithms. They acquire the critical capacity to analyze complex technical problems, evaluate system stability, and engineer innovative mechatronic solutions for real-world industrial challenges. Practical laboratory experiments, prototype building, and collaborative design projects build high-level hands-on skills in microcontroller programming, CAD modeling, circuit construction, and robot control. Furthermore, the specialized honors curriculum prepares graduates to specialize in focus fields such as autonomous robotics, industrial process automation, smart medical device engineering, or unmanned vehicle design.