Electromagnetism Fundamentals for Electrical Engineering

Electromagnetism is the theoretical backbone of electrical engineering, but the foundational concepts can often seem abstract. This course breaks down field theory into clear, manageable principles using a rigorous, text-based approach. By the end of this course, you will possess a strong grasp of how electric and magnetic fields interact, allowing you to confidently analyze inductance, capacitance, and the behavior of electrical machines and transmission lines. What you'll learn: * Understand the laws governing static charges (Coulomb's Law, Gauss's Law) and steady currents (Biot-Savart Law). * Apply vector calculus concepts (Gradient, Divergence, Curl) to represent electric and magnetic fields in differential form. * Master Faraday's Law of Induction, Lenz's Law, and the concepts of self and mutual inductance using dot notation. * Analyze the behavior of moving charges in fields using the Lorentz Force equation. * Configure basic boundary conditions for conductors and dielectrics, leading to a fundamental understanding of capacitance. * Interpret the full set of Maxwell's equations, connecting static fields to time-varying fields and wave propagation concepts. The course begins with defining fundamental quantities and progresses methodically through static fields, time-varying fields, and the derivation of key field equations. Written explanations and practice exercises guide your understanding from theory to practical application. This course is designed for absolute beginners in Electrical Engineering, Physics, or related fields. No prior knowledge of advanced calculus or electromagnetism is required, only basic algebra. Start building your essential foundation in electromagnetism today.