Lectures related to Magnetodynamics: Induced Currents

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

Explores magnetodynamics, Maxwell equations completion, and electromagnetic waves interaction with matter.

Explores Maxwell's equations completion, Faraday-Henry law, induced emf, and experiments in magnetodynamics.

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

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

Covers DC currents, resistors, capacitors, Kirchhoff's laws, and electromotive force in electric circuits.

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

Explores the comparison between electrostatics and magnetostatics, forces on currents, the Biot-Savart law, and applications of magnetic fields.

Covers the basics of DC currents, resistors, capacitors, and superconductors, including historical context and Nobel Prize-winning discoveries.

Explores displacement current in capacitors, completing Maxwell's equations and demonstrating its impact on electric and magnetic fields.

Explores electric potential energy, capacitors, electric fields, and circuits, including Ohm's law and ideal DC circuits.

Explores Kirchhoff's laws in DC circuits, resistor analysis, and capacitor behavior.

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

Covers the analysis of AC circuits, focusing on complex impedance and phase differences between current and voltage.

Explores the electric field of a dipole moment and the concept of bound charges in a dielectric.

Explores dielectrics, capacitors, electric energy, force, and resistivity in materials.

Explores the behavior of capacitors, electrostatic potential energy, and forces on dielectric materials.

Covers the theory and applications of capacitors, explaining the concept of capacitance and the relationship between charge and voltage.