A circuit containing a 80 mH inductor and a `60 micro F` capacitor in series and has a resistance of `15 Omega` is connected to a 230 V, 50 Hz supply Obtain the average power transferred to each element of the circuit, and the total power absorbed.

A circuit containing a 80 mH inductor and a 60 muF capacitor in series is connected to a 230 V, 50 Hz supply. The resistance of the circuit is negligible. What is the average power transferred to the inductor?

A circuit containing a 80 mH inductor and a 60 muF capacitor in series is connected to a 230 V, 50 Hz supply. The resistance of the circuit is negligible. What is the average power transferred to the capacitor?

A circuit containing a 80 mH inductor and a 60 muF capacitor in series is connected to a 230 V, 50 Hz supply. The resistance of the circuit is negligible. Obtain the rms values of potential drops across each element.

A circuit containing a 80 mH inductor and a 60 muF capacitor in series is connected to a 230 V, 50 Hz supply. The resistance of the circuit is negligible. Obtain the current amplitude and rms values.

A circuit containing a 80 mH inductor and a 60 muF capacitor in series is connected to a 230 V, 50 Hz supply. The resistance of the circuit is negligible. What is the total average power absorbed by the circuit? [‘Average’ implies ‘averaged over one cycle’.]

A 100 muF capacitor in series with a 40 Omega resistance is connected to a 110 V, 60 Hz supply. What is the maximum current in the circuit?

A 100 muF capacitor in series with a 40 Omega resistance is connected to a 110 V, 60 Hz supply. What is the time lag between the current maximum and the voltage maximum?

A 44 mH inductor is connected to 220 V, 50 Hz ac supply. Determine the rms value of the current in the circuit.