
Comprehensive exploration of semiconductor physics, devices, and fabrication processes, covering materials, junctions, transistors, optoelectronics, and manufacturing techniques for integrated circuits.

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

Explore semiconductor physics, device structures, and operational principles. Covers energy bands, carrier dynamics, p-n junctions, transistors, and advanced topics like heterojunctions and compound semiconductors.

Explore quantum mechanics, semiconductor physics, and electronic devices. From wave-particle duality to charge transport and continuity equations, gain a comprehensive understanding of semiconductor fundamentals.

Explore thermal modeling and heat sinking in power electronics, covering essential concepts for efficient thermal management and device performance optimization.

Explore the history, evolution, and goals of power electronics, focusing on processing and controlling electrical energy in various applications and systems.

Learn to leverage eGaN FETs and ICs for efficient motor drives. Explore benefits, applications, and practical examples of this cutting-edge technology in power electronics and motor control.

Explore MOSFET operating modes, understanding key principles and applications in electronic circuits. Gain insights into device behavior and performance characteristics.

Learn about MOSFET structure, operation, and characteristics in this concise introduction to a fundamental semiconductor device used in modern electronics.

Solve example problems involving MOSCAPs to deepen understanding of their behavior and characteristics in electronic circuits.

Comprehensive guide to various diode types, their applications, and practical experiments. Covers rectifiers, SCRs, Zener diodes, LEDs, and laser diodes, with hands-on demonstrations for enhanced understanding.

Explore P-N junction device modeling for photovoltaics using ADEPT, Quantum ESPRESSO, and S4. Learn to simulate various materials and structures, calculate properties, and optimize solar cell designs.

Explore fundamental concepts and principles of semiconductor devices, gaining essential knowledge for electronic engineering applications.

Explore MOSFET characteristics, small signal analysis, incremental gain, and device equations for a comprehensive understanding of this crucial semiconductor device.

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

Explore the short channel current model for MOS transistors, covering linear and saturation regions to understand non-ideal behavior.