The BRADLEY DEPARTMENT of ELECTRICAL and COMPUTER ENGINEERING

ECE 4224 Power Electronics | ECE | Virginia Tech

Undergraduate PROGRAMS

Course Information

Description

Switching power converter operation and design; modeling of power converters; power components including power semiconductor devices, inductors, and transformers; control of power converters; select power converter topology for applications such as renewable energy, electric transportation, and telecommunications.

Why take this course?

As the enabling technology for most of the electrical and electronics industry, power electronics is a rapidly expanding field. Growing and emerging applications such as information and telecommunications, electrified transportation, renewable energy systems, industrial automation, and advanced transmission and distribution systems are increasing the demand for power electronics engineers. The new EE major on Energy and Power Electronics Systems will give students the background needed to be successful in these high-demand areas. ECE 4224 is the primary power electronics course in the EE Energy and Power Electronics Systems major. It is the principal source of power electronics education in the ECE undergraduate curriculum.

Learning Objectives

  • 1. Analyze basic operation of switching power converters;
  • 2. Simulate detailed, average, and small-signal operation of power converters;
  • 3. Use steady-state, average, and small-signal models of pulse width modulation switch in power converter analysis and design;
  • 4. Design of converter power stage for steady-state specifications;
  • 5. Design feedback controller of converters for dynamic specifications;
  • 6. Design inductors and transformers for high-frequency power converters;
  • 7. Select a converter topology for a given application.

Course Topics

Topic

Percentage of Course

1. Steady-state DC converter analysis and design 5%
2. Steady-state AC converter analysis and design 20%
3. Semiconductor power switches 5%
4. DC power converter topologies and design 10%
5. AC power converter topologies and design 15%
6. Average modeling of pulse width modulation converters 10%
7. Small-signal modeling of pulse width modulation converters 10%
8. Output feedback control design 10%
9. Basic magnetics theory 5%
10. Inductor and transformer design 10%