When two capacitances are connected in series, the equivalent capacitance is `2.4muF` and when they connected in parallel, it is `10muF`. The individual capacitances are

When two capacitances are connected in series, the equivalent capacitance is 2.4 mu F and when they connected in parallel, it is 10 mu F . The individual capacitances are

When two capacitors are connected in series, the equivalent capacitance is (15)/(4) muF . When they are connected in parallel, the equivalent capacitance is 16muF . The individual capacitance are

When two capacitors are connected in series, the equivalent capacitance is 1.2muF . When they are connected in parallel, the equivalent capacitance is 5muF . The capacitances of the capacitors are

When a number of capcitors of equal capacitances are connected in series, the effective capacitance is 0.4 mu F and when they are connected in parallel, the effective capacitance is 90mu F . What is the capacitance of each capacitor ?

n idential capacitors each of capacitance C when connected in series give equivalent capacitance 1.2muF and when connect in parallel give 120muF . Then n and C are

When three identical capacitors are connected in series, their equivalent capacitance is 2muF . Now they are connected in parallel across a source of e.m.f. 200 V. The total energy stored is

Condensers of capacity 4muF , 5muF and 6muF are connected first in series . The effective capacitance is C_(1) . When they are connected in parallel, the effective capacitance is C_(2) . Then the ratio C_(2)//C_(1) will be

Two capacitors of capacities 2muF each are connected in series. The effective capacitance in muF is

Seven capacitor are connected as shown in the figure. . The equivalent capacitance in muF between A and B is.

Two capacitor each of capacity 4muF are connected in series and third capacitor of capacity 4muF is connected in parallel with the combination. The equivalent capacitance of the arrangement is