Lectures related to Parasitic element (electrical networks)

Explores energy storage in coils, magnetic fields, and capacitors, emphasizing the oscillation and decay of energy in circuits.

Explores time-dependent currents in LR circuits, focusing on mutual inductance and energy storage.

Explores inductors' applications, LC circuit operation in radio clocks, energy oscillations, and harmonic oscillators.

Explains index responses, unit jumps, and step responses of inductors and capacitors.

Covers economic dispatching, marginal costs, symmetrical components, and power flow optimization in electrical networks.

Covers the Lumped Element Model, 'lumping' systems, equivalent circuits, and domain conversion.

Covers complex calculations in electricity, focusing on the relationship between voltage and current in circuits.

Explores resonators' equation of motion, stress effect on frequency, and single mode solutions.

Covers the calculation of short-circuit currents in electrical networks and the equivalent models of components.

Explores LC oscillators, filters, resonance, and energy losses in circuits with inductors and capacitors.

Explores magnetic forces, energy, inductance, and the magnetic dipole moment in circuits.

Covers the definition of self-inductance and provides illustrative examples.

Explores energy storage in magnetic fields, LC circuits, ferromagnetic cores, and oscillating voltage signals.

Covers Maxwell's equations, inductances, and magnetodynamics, including self- and mutual inductance concepts and practical calculations.

Covers the geometric interpretation of impedance in single-phase sinusoidal circuits and its application to inductance and capacitance.

Delves into magnetodynamics, RL circuits, and energy storage in solenoids.

Explores AC circuits, Ohm's law, Kirchhoff's laws, phase shifts, filters, and power consumption in AC circuits.

Explains mutual inductance, self-inductance, magnetic energy, and 'cross-talk' in circuits.

Covers Lumped Element Modelling in mechanical systems, simplifying complex systems into discrete elements that exchange energy.

Explores electromechanical force conversion and energy balance in electromechanical systems.