Lectures related to Maxwell's Equations: Derivation and Implications

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

Explores Maxwell's equations, induction in moving conductors, electromotive force, and electrical fields.

Explores the basics of magnetism, magnetic fields, and magnetic properties in materials.

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

Explores magnetic phenomena, current, charge conservation, Biot-Savart law, and Ampère's force law.

Explores electric fields, energy storage, charge displacement, DC currents, and historical aspects of electricity.

Explores magnetic fields, currents, Biot-Savart law, Ampère's law, and magnetic dipoles.

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

Explains how time-varying magnetic fields induce electric currents through Faraday's experiments and the third Maxwell's equation.

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

Covers Lenz's law, induced voltage, and electromagnetic circuits.

Covers Maxwell's equations, electric displacement, magnetic induction, and current density.

Explores Maxwell's equations, Ampère's circuital law, and its practical application in systems with high symmetry.

Explores magnetic dipole moment, torque, energy, field analysis, and Maxwell's equations for magnetostatics.

Introduces the importance of studying electromagnetic phenomena and Maxwell's equations.

Explores the basics of electromagnetism, Ohm's law, Lenz's law, and Faraday's law, shedding light on electromagnetic devices.

Explores Maxwell's equations, Lenz's law, electromagnetic waves, and displacement current in electrodynamics.

Discusses Maxwell equations in matter, polarization effects, and magnetodynamics.

Explores fundamental cosmological puzzles related to dark matter and energy.