In the circnit shown, capacitor is initially uncharged till the switch is turned on at time `t= 0`. Then

In the circuit shown, the capacitor is initially uncharged. The switch S is closed at t = 0. Time after which voltage across capacitor and resistor are equal is:

Passage-III In the circuit shown, the battery is ideal with emf V. The capacitor is initially uncharged. The switch is closed at time t = 0 The current in the branch BE at t=oo is

Passage-III In the circuit shown, the battery is ideal with emf V. The capacitor is initially uncharged. The switch is closed at time t = 0 The current in branch containing capacitors at any time t is

In the circuit shown in figure, the battery is an ideal one, w/The emf V. The capacitor is initially uncharged. The switch s is closed at time t = 0 The charge Q on the capacitor at time t is

In the circuit shown in Figure, the battery is an ideal one, with emf V. The capacitor is initially uncharged. The switch S is closed at time t = 0 . (a) Find the charge Q on the capacitor at time t. (b) Find the current in AB at time t. What is its liniting value as t rarr oo : .

In the circuit shown in Figure, the battery is an ideal one, with emf V. The capacitor is initially uncharged. The switch S is closed at time t = 0 . (a) Find the charge Q on the capacitor at time t. (b) Find the current in AB at time t. What is its liniting value as t rarr oo : .

In the circuit shown in figure-3.244, the battery is an ideal one with emf V. The capacitor is initially uncharged. The switch S is closed at time t=0. (a) Find the charge Q on the capacitor at time l (b) Find the current in branch AB at time just after closing the switch.

In the circuit shown, the capacitor C_1 is initially charged with charge q_0 . The switch S is closed at time t = 0 . The charge on C_2 after time t is