In the circuit shown in fig. `C_1 = 2C_2` Initially, capacitor `C_1` is charged to a potential of V. The current in the circuit just after the switch S is closed is

In the circuit shown in figure C_(1) = 2 C_(2) . Capacitance C_(1) is charged to a potential of V. The current in the circuit just after the switch S is closed is

In the circuit shown in figure C_(1) = 2 C_(2) . Capacitance C_(1) is charged to a potential of V. The current in the circuit just after the switch S is closed is

In the circuit shown in figure-3.345 the capacitor of capacitance C is charged to a potential difference V. The current in the circuit just after the closing of switch S is :

n the circuit shown in the figure, the capacitor C is charged to a potential V_(o) The heat generated and charge flow, in the circuit to when the switch S is closed, is

n the circuit shown in the figure, the capacitor C is charged to a potential V_(o) The heat generated and charge flow, in the circuit to when the switch S is closed, is

The circuit consists of two resistors (of resistance R_(1) = 20 Omega and R_(2) = 10 Omega ), a capacitor (of capacitance C =10 muF ) and two ideal cells. In the circuit shown the capacitor is in steady state and the switch S is open The current through the resistor R_(2) just after the switch S is closed is :

The circuit consists of two resistors (of resistance R_(1) = 20 Omega and R_(2) = 10 Omega ), a capacitor (of capacitance C =10 muF ) and two ideal cells. In the circuit shown the capacitor is in steady state and the switch S is open The current through the resistor R_(2) just after the switch S is closed is :

In the circuit shown in figure 3.242 capacitor is charged with 50muC charge. Find the current in 4Omega resistance just after switch S is closed.

In the circuit shown in fig. when the switch is closed, the capacitor charges with a time constant