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Duration: 4Ìýhours

In this module, we introduce the Middlebrook's Extra Element Theorem (EET) and through examples show how this approach can be used to simplify circuit analysis, examine effects of initially unmodeled components, and derive analytical insights into how to modify and improve converter frequency responses. Practical examples include design-oriented analysis of filter frequency responses, effects of equivalent series resistance, and insights gained from the graphical view of impedance interactions. Week 1 includes application examples and practice Quizzes and concludes with a graded Quiz on Extra Element Theorem.Ìý

Duration: 4Ìýhours

In this module, the Extra Element Theorem is applied to the design-oriented analysis of frequency responses of higher-order converters such as SEPIC, Cuk, or basic converters with additional filters. It is shown how undesirable resonances can be properly damped based on insights offered by the Extra Element Theorem. A SEPIC design example is worked out in detail, including the design of a damping network. The design example is supported by a MATLAB script and Spice simulations. Week 2 includes practice Quizzes and concludes with a graded Quiz on the application of the Extra Element Theorem.

Duration: 5Ìýhours

In this module, we introduce the N-Extra-Element-Theorem. This design-oriented analysis technique allows writing complex transfer functions using a series of simple circuit analysis with minimum algebra. The approach is applied to the analysis of complex filter and converter transfer functions. Week 3 includes application examples and practice Quizzes, as well as a graded Quiz on applications of the N-Extra Element Theorem.

Duration: 2Ìýhours

Final Exam for this course.