Power Electronics Specialization Course Syllabus
Full curriculum breakdown — modules, lessons, estimated time, and outcomes.
Overview: This specialization provides a comprehensive introduction to power electronics, covering the core principles of switched-mode power converters, circuit design, control systems, and magnetic components. The program is structured into five technical modules and a final capstone project, requiring approximately 81 hours to complete. Learners will gain practical skills through hands-on assignments and peer-reviewed projects, preparing them for real-world applications in industry and research settings.
Module 1: Introduction to Power Electronics
Estimated time: 11 hours
- Principles of switched-mode converter circuits
- Steady-state analysis of voltages and currents
- Derivation of averaged equivalent circuit models
- Efficiency calculations in power converters
Module 2: Converter Circuits
Estimated time: 18 hours
- Implementation of power semiconductor devices in switching converters
- Analysis of discontinuous conduction mode (DCM)
- Design and analysis of dc-dc and dc-ac converter circuits
- Transformer isolation in dc-dc converters: forward and flyback topologies
Module 3: Converter Control
Estimated time: 19 hours
- Feedback system design for switching regulators
- Voltage-mode control techniques
- Current-mode control techniques
- Stability analysis and loop compensation
Module 4: Magnetics for Power Electronic Converters
Estimated time: 17 hours
- Fundamentals of inductors and transformers
- Analysis and modeling of magnetic losses
- Design and optimization of magnetic components
- Role of magnetics in switched-mode power converters
Module 5: Efficiency and Optimization
Estimated time: 16 hours
- Modeling losses in converter components
- Trade-offs between efficiency, size, and performance
- Techniques for improving power converter efficiency
- System-level optimization strategies
Module 6: Final Project
Estimated time: 20 hours
- Design of a complete switched-mode power converter
- Implementation of control and feedback mechanisms
- Peer-reviewed submission and evaluation
Prerequisites
- Basic knowledge of electrical circuits
- Familiarity with semiconductor devices
- Understanding of Laplace transforms and frequency-domain analysis
What You'll Be Able to Do After
- Understand and analyze the operation of various switched-mode power converters
- Design and implement dc-dc and dc-ac converter circuits
- Apply voltage-mode and current-mode control techniques in regulators
- Design and optimize inductors and transformers for power converters
- Analyze efficiency and performance trade-offs in power electronic systems