Design-Oriented Analysis in Power Electronics

Effective power electronics design requires more than just simulation; it requires a deep understanding of how circuit components interact. This course introduces you to the methodologies used to break down complex converter models into manageable, insightful equations that drive real-world engineering decisions. You will learn how to approach circuit analysis from a design perspective, focusing on the Extra Element Theorem and other tools that reveal the physical behavior of power systems. By the end of this course, you will be able to derive transfer functions and analyze converter stability with clarity and precision, moving beyond brute-force algebra to elegant engineering solutions. What you'll learn: - Understand the core concepts of design-oriented analysis for switching converters - Apply the Extra Element Theorem to evaluate the impact of adding or changing circuit components - Practice deriving low-entropy algebraic expressions that simplify design iterations - Analyze feedback loops and impedance characteristics in power electronics systems - Master the basics of small-signal modeling for modern power conversion applications - Understand the role of parasitic elements in high-performance circuit design The course starts with essential terminology and basic circuit definitions before progressing to systematic modeling techniques and practical design exercises through written explanations. This course is intended for beginners and those new to power electronics modeling; no prior specialized knowledge of switching converters is required. Gain the analytical foundation necessary to excel in power electronics engineering.