Electromagnetic Induction: Empirical Law and Mathematical Formulas

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Explores the applications of Lorentz force and Laplace's force in devices like galvanometers and electric motors.

Explores magnetic circuits, inductances, and Maxwell's equations in the quasi-static regime, emphasizing Faraday's law and magnetic permeance.

Explores the displacement vector D, plane waves, and magnetic vector potential, addressing student questions and clarifying key concepts.

Explores magnetic fields in current-carrying wires and solenoids using Biot-Savart and Ampere's laws.

Explores self-inductance, EMF, and the Lenz rule in Faraday's induction context.

Covers strategies to optimize magnets for soft magnetic materials applications, including losses in AC applications and historical progress.

Explores electric and magnetic fields on closed paths, induction of current, and energy conversion.

Explores Maxwell's equations in polarized matter and fields transformation under different frames.

Explores the foundation faces of the solar system, general relativity, and electromagnetic forces.

Explores magnetic materials, induction, transformers, and force calculation in magnetic systems.

Introduces electric current, Ohm's law, Poisson's equation, and magnetic field effects.

Covers Newton's three laws of motion, fundamental forces, and exercises, including gravitational and electromagnetic forces.

Explains magnetic moment and compass alignment in a loop of wire.

Covers a review of Maxwell's equations and the concepts of internal, demagnetization, and stray fields.

Covers magnetic fields, Ampère's law, and magnetic dipoles with examples and illustrations.

Explores Lorentz force and magnetic fields interactions with moving charges in stationary magnetic fields.

Covers the use of Maxwell's equations to evaluate magnetic fields from magnetization in materials.

Explores Electron Spin Resonance experimental techniques and relaxation times in materials.

Covers the basics of magnetism, magnetic substances, scaling of magnets, and applications in MEMS.

Explores the historical evolution of electromagnetism, from ancient discoveries to Maxwell's equations.

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