Study of advanced control and high frequency modeling of power converters; analysis and design of high-frequency power converters; analysis of high-frequency magnetic components; analysis and design of embedded power management solutions for distributed power systems.
Why take this course?
Higher efficiency and smaller size are continually demanded by industries for distributed power systems in such applications as microprocessors, laptop, desktop, server, telecom equipment, and renewable energy systems. In the past 10 years, the embedded/on-board power management solution has become the most popular solution due to its high-efficiency and high-density performance. Many new technologies have been developed to improve the efficiency and power density of embedded power converters. This course focuses on these advanced technologies. It provides a comprehensive overview of recent developments in embedded power management for distributed power systems, especially for computing and telecom systems.
Understanding of operating principles, different control schemes and modeling techniques for basic switching circuits, as covered in 5254 and its prerequisites, is required before beginning the study of more advanced power conversion techniques for distributed power systems.
Major Measurable Learning Objectives
Specify the challenges of power management for next generation microprocessors
Specify benefits and limitations of modeling and controls for multi-phase voltage regulator
Analyze power loss for multi-phase voltage regulator
Analyze and design high frequency magnetic components
Analyze and design various advanced power management solutions
Percentage of Course
1. Introduction of embedded power management
2. Advanced control for multi-phase Voltage Regulator
3. Modeling for multi-phase Voltage Regulator
4. High-frequency power converter design and loss analysis
5. Characterization and design for high-frequency magnetic components
6. Multi-phase power converter with coupled-inductor