Foundational Electromagnetism: Fields, Forces, and Motion

Understanding how electricity and magnetism interact is crucial for analyzing nearly every piece of modern technology, from motors and generators to complex sensors and transducers. This course provides a robust, written introduction to classical electromagnetism, enabling you to confidently analyze field behavior, calculate forces, and understand the basic operation of electromechanical systems. Upon completing this course, you will have a solid grasp of Maxwell's equations in their simplified forms and be able to apply these principles to practical engineering problems. What you'll learn: * Understand the core concepts of electric and magnetic fields, potentials, and fundamental material properties (dielectrics, conductors). * Apply Maxwell's equations in their quasistatic forms for analyzing time-varying fields and simple boundary value problems. * Calculate electromagnetic forces, force densities, and basic stress tensors acting on charged matter and magnetic materials. * Analyze the fundamental principles of energy conservation and thermodynamics within electromagnetic systems. * Practice modeling the dynamics and equations of motion for simple electromechanical systems, including basic actuators and transducers. * Learn the foundational concepts behind modern charge transport phenomena and the operation of simple sensors. The course begins by defining essential terminology and field concepts, progresses through the application of quasistatic Maxwell's equations, and culminates in the analysis of force generation and simple electromechanical motion. This course is designed for absolute beginners in electrical engineering or physics. No prior knowledge of advanced electromagnetism or vector calculus is required, though basic algebra is helpful. Start building your essential knowledge base in electromagnetism today.