
Comprehensive exploration of electrical engineering fundamentals, covering circuits, components, and systems for a solid foundation in the field.

This course will also cover Single Phase Transformers, Three Phase Induction Machines and DC Machines. By the end of the course, the students should be able to gather high-quality knowledge of basic Electrical Engineering.

The course will cover low noise amplifiers, mixers, power amplifiers, frequency synthesizers (and phase locked loops). The course will also cover several modern radio architectures.

Explore fundamental magnetic concepts and their application in inductor analysis, including magnetic circuit models, magneto-motive force, and reluctance in power electronics.

Explore inductors and capacitors in electrical engineering, covering their physics, behavior in circuits, energy storage, and applications in series and parallel configurations.

Comprehensive guide to switching power supply design, covering buck regulator components, control modes, measurement techniques, and advanced topics for optimal performance and efficiency.

Comprehensive introduction to full wave bridge rectifiers, covering components, operation, and output smoothing techniques. Includes practical demonstrations and component recommendations.

Learn how to select appropriate inductors and capacitors for buck converters, optimizing power efficiency and performance in electronic circuits.

Explore RLC circuits in AC systems, covering resistors, capacitors, inductors, impedance, and phasor diagrams. Learn to calculate resonance frequency and power dissipation in series circuits.

Analyze small signals and derive incremental gain for common-source amplifiers, focusing on gate overdrive voltage and operating points.

Explore input-output relationships in RLC circuits, analyzing their behavior and characteristics for enhanced understanding of electrical systems.

Explore key concepts of alternating current, including voltage, frequency, reactance, impedance, and RLC circuits. Gain insights into power calculations and resonance in electrical systems.

Solve 10 common JAMB Physics problems on resistors, inductors, and capacitors to enhance your understanding and exam preparation.

Explore RL circuits, including current behavior, time constants, and inductor energy storage. Learn formulas and solve practice problems to master this fundamental concept in electrical engineering.

Solve LR circuit problems involving time constants, energy, and power dissipation in inductors and resistors.

Explore electromagnetic induction, covering motional EMF, magnetic flux, Faraday's law, and inductors in college-level physics.

Model RLC circuits using numerical calculations and Python, exploring analytical solutions and simulations for capacitor discharge and RLC behavior.

Explore Faraday's Law, Lenz's Law, and Maxwell's Equations. Understand inductors, transformers, and magnetic field energy density. Gain insights into electromagnetic principles and applications.

Explore electromagnetic induction, Faraday's Law, and related concepts. Learn about electric generators, power production, and applications like transformers and RL circuits.