Classical Electrodynamics: Fields, Forces, and Waves

Classical Electrodynamics is the essential foundation for understanding nearly all modern physics and electrical engineering. This course provides a rigorous, text-based introduction to the mathematical laws governing electric and magnetic phenomena. By the end of this course, you will be able to analyze complex field configurations, solve boundary value problems, and describe the dynamics of electromagnetic waves and charged particles. What you'll learn: * Master the vector calculus tools necessary for describing electric and magnetic fields, including divergence, curl, and fundamental theorems. * Understand the principles of electrostatics, solving complex boundary value problems using techniques like the method of images and separation of variables. * Analyze magnetostatics and the relationship between steady currents and magnetic fields, including basic concepts of magnetic materials. * Formulate and apply Maxwell's equations in both differential and integral forms to analyze time-varying fields and potentials. * Analyze the propagation of electromagnetic waves through various media and understand concepts like wave energy and momentum. * Apply the Lorentz force law and understand the dynamics of charged particles, including basic concepts of special relativity applied to electromagnetism. The course begins with a review of essential mathematical concepts and progresses systematically through static fields, time-varying fields, and the resulting wave phenomena. You will practice applying these laws to solve classic problems in the field. This course is designed specifically for beginners in physics or engineering who need a strong, foundational understanding of classical electromagnetism. No prior knowledge of advanced physics is required. Start reading today to unlock the fundamental forces of nature.