Upon successful completion of the program, the graduate should be able to:
1. Describe the fundamental principles of mechanical, electrical, pneumatic, and hydraulic components used in mechatronic systems.
2. Explain the operation and integration of programmable logic controllers (PLCs) within automated manufacturing environments.
3. Apply digital logic and embedded systems programming to solve basic control problems in mechatronic applications.
4. Analyze the performance and functionality of automated manufacturing systems using data from sensors, actuators, and control interfaces.
5. Apply Industry 4.0 technologies, including artificial intelligence, Internet of Things, and cybersecurity frameworks, to develop secure, interconnected, and data-driven manufacturing systems.
6. Design integrated mechatronic systems that combine mechanical, electrical, and software components to meet specified performance criteria.
7. Evaluate how industrial robotic systems are designed and integrated in automated production environments, including the use of end-of-arm tooling, safety systems, and peripheral devices.
8. Formulate research questions and design, write, and present research proposals to investigate complex automation challenges, synthesize data, and propose evidence-based solutions.
9. Collaborate effectively in diverse teams to manage innovation and technology projects, demonstrating leadership and change management skills.
10. Apply ethical, culturally grounded, and respectful approaches when engaging with Indigenous communities across social and professional contexts, upholding relational accountability and responsibilities informed by Indigenous histories, worldviews, protocols, and reconciliation frameworks.
11. Synthesize insights from a range of interdisciplinary subject areas to address ethical, societal, environmental, and technical challenges in automation and beyond.
