Course Modules include a complete, downloadable archive of all resources used in the development and implementations of the course. These are made publicly available for instructors to use in developing/creating/modifying a course at their own institution.
Lab-based course introducing techniques and best practices for the characterization, driving, and protection of WBG devices. Students perform experimental static and dynamic testing of WBG devices, and develop models of experimental performance. Characterization results enable advanced modeling, design, and optimization of power converters leveraging wide bandgap devices.
Instructor Resources — gives complete course schedule, homework assignments, lecture notes, PCB design files, and lab equipment inventory for the course.
Archived Course Webpages
Archived web pages are available for select courses. Archived web pages contain the syllabus, lecture notes, course schedule, assignments, and additional materials for the course.
Mutual inductance and ideal transformers; Phasor modeling; Average, complex, imaginary and real power; Laplace and Fourier-domain circuit analysis
Introduction to switched-mode power converters. It provides a basic knowledge of circuitry for the control and conversion of electrical power with high efficiency. These converters can change and regulate the voltage, current, or power; dc-dc converters, ac-dc rectifiers, dc-ac inverters, and ac-ac cycloconverters are in common use. Applications include electronic power supplies, aerospace and vehicular power systems, and renewable energy systems.
Design-oriented introduction to the analysis, design, modeling, and testing of power electronics systems in the context of a real electric vehicle system. Through practical laboratory experiments, students are guided through the fabrication of the multiple switched-mode power converters as well as associated analog and digital control systems necessary to realize a functioning, sub-kW electric vehicle. Specific systems include a bidirectional DC-DC converter and motor drive inverter which are designed using standard power electronics analysis techniques. The course culminates with a design exposition/competition of the constructed vehicles.
Motivations and inherent design issues associated with high frequency switched mode power supply design. Origins and dependencies of frequency dependent losses will be reviewed, with specific emphasis on potential design approaches which reduce energy loss and facilitate high frequency operation. Resonance, and its application to power converter will be discussed. Students will learn steady-state and dynamic modeling techniques which allow the analysis and design of converters containing significant resonant intervals, for which traditional small ripple assumptions do not hold.
Course covers advanced topics in modeling and control of power electronics, including discrete time modeling, digital control, and nonlinear phenomena