Introduction
This unit introduces students to the fundamental principles of power electronics and their essential role in sustainable energy conversion. Students will explore key concepts such as power electronic components, efficiency analysis, converter topologies, control strategies, and performance evaluation, with applications in renewable energy systems, electric vehicles, and industrial automation.
Through a combination of theoretical study, simulation, and hands-on laboratory work, students will model, design, analyze, and implement power electronic systems with a focus on optimizing performance, efficiency, and reliability. The unit emphasizes the use of industry-standard simulation tools and laboratory experiments to bridge theoretical knowledge with real-world applications.
By engaging in practical projects and experiments, students will gain insight into how power electronics enables renewable energy integration while enhancing system performance and sustainability, contributing to a climate-safe future. This unit prepares students for advanced studies and careers in renewable energy integration and sustainable power system design.
Summary
| Unit name | Power Electronics |
| Unit code | ENG325 |
| Credit points | 12.5 |
| College/School | Sciences and Engineering School of Engineering |
| Discipline | Engineering |
| Coordinator | Doctor Waqas Hassan |
| Available as an elective? | No |
| Delivered By | University of Tasmania |
| Level | Advanced |
Sustainable Development Goals
The Unit Coordinator has identified that this unit aligns with the following UN Sustainable Development Goals. We welcome your thoughts and feedback on the alignment of the unit with these goals.
Availability
Specific information on 2027 unit availability will be available in August
Learning Outcomes
- Analyse the operation and characteristics of power electronic components and converters, emphasising their role in sustainable energy systems
- Design power electronic systems by selecting components and circuit topologies to enhance energy efficiency, reduce carbon footprint, and meet operational requirements
- Model and simulate power electronic systems to implement control strategies for reliable operation and optimised performance in renewable energy applications.
- Assess power converter performance by evaluating a range of standard metrics in real-world applications.
Fee Information
2027 fee information will be available in August.
Requisites
Prerequisites
ENG224 Analogue Electronics, ENG216 Signals and Systems AND ENG214 Electrical MachinesTeaching
| Teaching Pattern | 1 x 2 hour lecture per week 1 x 2 hour Tutorial per week 8 x 3 hour labs per semester |
|---|---|
| Assessment | Laboratory (30%)|Tests (30%)|Design Project (40%) |
| Timetable | View the lecture timetable | View the full unit timetable |
Textbooks
| Required |
Required readings will be listed in the unit outline prior to the start of classes. |
|---|
The University reserves the right to amend or remove courses and unit availabilities, as appropriate.