Can the voltage drop across the inductor or the capacitor in a seris LCR-circuit be greater than the applied voltage of the a.c. source? Jusitfy your answer.

The algebraic sum of potential drops across the various elements in LCR-circuit is not equal to the applied voltage. Why?

When an AC voltage of 220 V is applied to the capacitor C.

What is the phase difference between voltage across the inductance and a capacitor in an a.c. circuit?

An alternating voltage of frequency f is applied across LCR circuit. Let f_r be the resonance frequency for the circuit. Will the current in the circuit lag, lead or remain in phase with the applied voltage when f>f_r ? Explain your answer in each case.

In a series LCR circuit the voltage across an inductor, a capacitor and a resistor are 30V, 30V and 60V respectively. What is the phase difference between the applied voltage and current in the circuit?

In a series RC circuit, R = 30 ohm, C = 0.25 mu F, V = 100 V, omega = 10000 rad//s . Find the current in the circuit and calculate the voltage across the resistor and capacitor. Is the algebraic sum of these voltages more than the source voltage ? If yes, resolve the paradox.

In an LCR-series a.c. circuit, the current

In a series LCR circuit the voltage across an inductor, a capacitor and a resistor are 20V, 20V and 40V respectively. What is the phase difference between the applied voltage and the current in the circuit?

Can the experimental probability of an event be greater than 1? Jusitfy your answer.