Power Electronics and Renewable Energy Conversion
EEG 525 provides a comprehensive graduate-level study of power electronics, focusing on their critical role in modern renewable energy conversion systems. Students will delve into the fundamental principles of various DC-DC and DC-AC converter topologies, analyzing their operational characteristics, control strategies, and performance metrics. The course emphasizes practical considerations such as semiconductor device selection, loss mechanisms, and thermal management techniques essential for robust and efficient system design. Beyond core converter concepts, the curriculum extends to advanced applications pertinent to renewable energy. Topics include the design and control of inverters for grid-tie applications, maximum power point tracking (MPPT) algorithms for solar photovoltaic and wind energy systems, and the integration of battery energy storage solutions. Through a blend of theoretical analysis and practical design principles, students will gain the expertise required to develop, analyze, and optimize power electronic systems for sustainable energy generation and distribution.
Course outline
Lectures, virtual labs, and graded assignments — completed in your browser.
Syllabus
Week 1: Introduction to Power Electronics and Renewable Energy Systems Week 2: Power Semiconductor Devices and Characteristics Week 3: DC-DC Converter Topologies: Buck, Boost, Buck-Boost Week 4: Isolated DC-DC Converters: Flyback, Forward, Half/Full-Bridge Week 5: Converter Design and Control Fundamentals Week 6: Losses, Efficiency, and Thermal Management Week 7: Single-Phase Inverters for AC Conversion Week 8: Three-Phase Inverters and Modulators Week 9: Maximum Power Point Tracking (MPPT) Algorithms Week 10: Grid-Tie Inverter Architectures and Control Week 11: Renewable Energy Integration and Microgrids Week 12: Battery Energy Storage Systems and Management Week 13: Advanced Converter Topologies and Soft-Switching Week 14: System Design and Case Studies