Electromagnetic Induction: Empirical Law and Mathematical Formulas

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Magnetic Circuits: Understanding Inductance and Maxwell's Equations

Explains magnetic circuits, focusing on inductance and Maxwell's equations in electromechanical systems.

Electromagnetism Fundamentals

Introduces the fundamentals of electromagnetism, covering magnetic flux, inductance properties, energy transformations, and practical applications.

Electromagnetism: Fundamentals and Applications

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

Magnetostatics: Drude Model and B-Field Circuits

Explores the Drude model, magnetostatics, B-field circuits, force on current elements, material conductivity, torque, and applications of B-fields.

Magnetic Fields and Induction

Explores magnetic dipoles, fields, induction, electromotive force, and applications like wireless energy transfer and magnetic levitation.

Magnetic Forces: Biot-Savart Law

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

Magnetic Fields and Forces

Explores magnetic fields, forces, Ampère's Law, and ferromagnetism, including the magnetic properties of materials and problem-solving examples.

Electrodynamics: Magnetic Fields and Induced Currents

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

Magnetic Fields and Induction

Explores magnetic fields, induction laws, electric field generation, and Earth's magnetic field mechanism.

Maxwell's Equations: Derivation and Implications

Explores the derivation and implications of the 4th Maxwell's equation, emphasizing the importance of charge conservation and the role of displacement current.