A circuit with only resistors and capacitors, used for voltage stabilization.
A circuit primarily used to convert electrical energy into light.
An electric circuit consisting of an inductor (L) and a capacitor (C), used primarily for oscillations and filtering.
An electric circuit consisting of resistors and capacitors, used for power amplification.
The interchange of energy between the electric field in the capacitor and the magnetic field in the inductor.
The inflow of electric charges from an external power source.
The inherent electrical resistance reducing circuit activity.
Thermal fluctuations within the circuit components.
The condition where all energy is consumed by the circuit, leading to no energy transfer.
Occurs when the circuit's natural frequency matches the frequency of an external source, resulting in maximum energy transfer.
The point at which the circuit stops functioning due to high resistance.
The buildup of static charge when no external current is applied.
Using the formula f = 1/(2π√(LC)), where L is the inductance and C is the capacitance.
By adding up the resistance in ohms to the total capacitance.
Multiplying the inductance by the resistance of the circuit.
Through trial and error by adjusting the circuit conditions.
Damping reduces the amplitude of oscillations over time, usually due to resistance in the circuit.
Damping enhances the oscillations, making them perpetual.
It increases the oscillation frequency without changing the amplitude.
Damping has no impact on the oscillations; it affects only the voltage levels.
A pure LC circuit excludes resistance, while an LCR circuit includes resistance, affecting damping and oscillation frequency.
They are essentially the same, both containing only inductors and capacitors.
An LCR circuit contains light-emitting diodes, unlike a pure LC circuit.
Pure LC circuits have built-in amplifiers; LCR circuits do not.
The charge on the capacitor and the current through the inductor oscillate sinusoidally and are out of phase by π/2 radians.
Both charge and current dissipate in two cycles.
They remain constant as the circuit is in equilibrium.
The charge remains steady while the current vanishes.
An open circuit with both the inductor and capacitor unenergized.
A scenario where the inductor is fully charged but the capacitor is empty.
A fully charged capacitor with no initial current through the inductor.
Both the capacitor and inductor being at zero potential.
They enhance the intensity of radio waves for broad transmission.
They regulate the energy consumption of radio devices.
For tuning to specific frequencies, as they can resonate at the desired signal frequency.
They function as amplifiers for the radio signal.
The measure of only the resistance against AC wave propagation.
The combination of resistance and reactance (capacitive and inductive) in an AC circuit, affecting current flow.
The energy loss due to heat dissipation in any component.
The improvement of energy efficiency in a circuit without resistance.
At resonance, the voltage and current are in phase, meaning there is no phase difference.
Voltage leads current by 90 degrees.
Current leads voltage by 180 degrees.
Voltage and current randomly fluctuate without any consistent phase relationship.
Complete conversion from electrical to thermal energy.
Alternates between stored electric energy in the capacitor and stored magnetic energy in the inductor.
Transforms electric energy into light energy.
Changes entirely into sound energy over each oscillation.
Yes, LC circuits can store energy without any energy loss.
In theory, an ideal LC circuit with no resistance could store energy indefinitely, but practical circuits lose energy over time due to resistance.
LC circuits only temporarily store energy before releasing it all as heat.
LC circuits store energy indefinitely by continuously adding more inductors.
Increasing the capacitor size increases the resonant frequency.
A larger capacitor results in a lower resonant frequency, as the resonant frequency is inversely proportional to the square root of capacitance.
The size of the capacitor has no effect on the resonant frequency.
Smaller capacitors lead to a randomly fluctuating resonant frequency.
The quality factor (Q) measures the sharpness of the resonance peak and is defined by the ratio of stored energy to energy dissipated per cycle.
The measure of current intensity within the circuit.
The ratio of capacitance to resistive power loss.
A factor determining the conductivity of the circuit wires.