
Comprehensive exploration of power electronics in industrial drives, covering rectifiers, converters, PWM control, motor speed control, and vector control for enhanced performance.

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 microelectronics, covering BJTs, MOSFETs, amplifiers, and circuit analysis. Focuses on device physics, operational modes, and practical applications in analog and digital circuits.

Explore Fourier Series, waveform characteristics, and single-phase full-bridge inverters in power electronics. Learn techniques to control AC output in DC-to-AC conversion.

Explore soft switching techniques for inverters, including resonant pole and ARCP inverters. Examine impacts on filter design and EMI emissions in power electronics.

Explore resonant power converters, including Fundamental Harmonic Approximation method and characteristics of resonant tanks, inverters, and rectifiers in this advanced power electronics lecture.

Explore harmonic cancellation and elimination techniques for controlling output waveforms in single-phase inverters, enhancing power electronics design and efficiency.

Explore multilevel inverters for harmonic elimination and cancellation, and learn pulse width modulation techniques for inverters in this advanced power electronics lecture.

You will learn about switches, diodes, types of load, rectifiers, semi-converters, source inductance, choppers, converters, communication circuits, inverters, and much more.

Explore multiplexors, demultiplexors, decoders, and 3-state buffers in digital circuits. Learn equations, applications, and practical implementations of these essential components.

Explore skewed inverter characteristics, including beta ratios, transition regions, and skew-ratio comparisons with unskewed inverters.

Explore skewed inverters, threshold voltage estimation, and their relationship to skewing-ratio in CMOS design.

Learn to extract capacitances for 3-Nand gate delay estimation and size transistors to match inverter resistances.

Deduce the expression for fanout-4 inverter delay, exploring its impact on circuit performance and design considerations.

Design and analyze ring oscillators to generate clock signals using inverter chains, exploring frequency control and performance optimization techniques.