
Comprehensive exploration of power electronics through 43 lectures, covering fundamental concepts, applications, and advanced topics in electrical engineering.

This course describes modern topics of Power Electronics in terms of switches, topologies and control. Moreover, the proposed course explains the application of Power Electronics in drives, Power Systems and Renewable Energy and other utility.

Comprehensive exploration of pulse width modulation techniques for power electronic converters, covering DC-DC, DC-AC, and multilevel converters, with analysis of harmonics, losses, and applications.

Explore converter waveform ripple, ripple ratio, and discontinuous conduction mode in DC/DC power electronics, expanding knowledge for efficient energy conversion systems.

Explore advanced concepts in isolated DC/DC converters, including multiple outputs, transformer leakage inductances, and double-ended converters. Deepen understanding of power electronics design.

Explore control modeling and feedback design for DC-DC boost converters, focusing on key considerations in power electronics control systems.

Explore DC-DC power conversion fundamentals, including analysis methods for periodic steady state and introduction to buck and boost converters in this comprehensive lecture.

Explore isolated DC-DC converters using transformers, focusing on flyback and forward converters. Learn principles and applications of these power electronics designs.

Explore dynamic control and modeling of DC-DC converters, focusing on the local average operator for describing averaged behavior through direct circuit averaging.

Explore device and passive component ratings, converter ripple modeling techniques, and their relation to component selection in power electronics design.

Explore switch implementation, external networks, and control in DC/DC converters. Analyze power flows and examine the inverting buck-boost converter as a practical example.

Learn to build a Geiger counter with high voltage components. Covers DC-DC conversion, circuit design, microcontroller programming, and radiation detection principles. Hands-on project for electronics enthusiasts.

Master current sensing techniques for DC-DC converters, enhancing your power electronics expertise. Explore advanced methods to accurately measure and control current flow in switching power supplies.

Explore non-linear control techniques for DC-DC converters, focusing on phase-shift relationships between inductor current and capacitor voltage.

Explore integrated power management, DC-DC converters, and their applications in self-powered sensors. Learn about different converter types and compare switching vs linear regulators.

Explore dead-time switching loss in DC-DC converters, understanding its impact and mitigation strategies for improved power efficiency.

Learn to analyze and minimize output voltage ripple in buck converters, enhancing power supply design skills for improved efficiency and performance.

Explore volt-second balance and non-idealities in buck converter power stages, enhancing understanding of power electronics principles and practical design considerations.

Explore CCM-DCM boundary conditions and voltage conversion ratios in DCM for power electronics applications.

Comprehensive exploration of DC/DC converters, covering theory, types, selection criteria, efficiency, features, control modes, stability, noise reduction, and practical applications.

Entwicklung einer herstellerübergreifenden Open-Source-Steuerung für Campingfahrzeuge: Überblick über Systeme, Protokolle und Komponenten sowie Lösungsansätze für eine zentrale, kostengünstige Fahrzeugkontrolle.