Each capacitance shown in is in `muF`. Find the charge on `6 muC`.
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Each capacitance shown in is in muF . Find the charge on 6 muF . .

All the capacitances shown in figure are in muF . Find the equivalent capacitance between A and B.

All the capacitances shown in figure are in muF . Find the equivalent capacitance between A and B.

A capacitor of capacitor of capacitance 2.0muF is charge to a potential diffrence of 12V It is then connected of uncharged capacitor of capacitance 4.0muF as shown in figure . Find (a ) the charge on each of the two capacitors after the connection, (b ) the electrostatic energy stored in each of the two capacitors.

A capacitor of capacitor of capacitance 2.0muF is charge to a potential diffrence of 12V It is then connected of uncharged capacitor of capacitance 4.0muF as shown in figure . Find (a ) the charge on each of the two capacitors after the connection, (b ) the electrostatic energy stored in each of the two capacitors.

Six capacitors each of capacitance 1 muF are connected as show in . Find the charge flowing in direction 1 as shown in the figure will be .

Six capacitors each of capacitance 1 muF are connected as show in . Find the charge flowing in direction 1 as shown in the figure will be .

The capacitance of a capacitor is 3 muF . If a charge of 108muC , exists on it, calculate its potential .

In each capacitance C_(1) is 6.0 muF , and each capacitance C_(2) is 4.0 muF . . The charge on C_(1) nearest to a when V_(ab)=420 V is.

In each capacitance C_(1) is 6.0 muF , and each capacitance C_(2) is 4.0 muF . . The charge on C_(1) nearest to a when V_(ab)=420 V is.