Home
Class 12
PHYSICS
In a series combination of two capacitan...

In a series combination of two capacitances C and C (Cgt C) (as shown in the circuit),

A

C' stores more energy than C

B

C stores more energy than C

C

potential difference across C is more than that across C'

D

potential difference across C is more than that across C

Text Solution

Verified by Experts

The correct Answer is:
B, C, D
Promotional Banner

Similar Questions

Explore conceptually related problems

Effective capacitance of parallel combination of two capacitors C_(1) and C_(2) is 10muF . When the capacitors are individually connected to a voltage source of 1V, the energy stored in the capacitor C_(2) is 4 times of C_(1) . If these capacitors are connected in series, their effective capacitor will be: lt

In L-C-R series circuit

A capacitor of capacitance C, charged to a potential difference V, is discharged through a series combination of two resistors R_(1) and R_(2) . Find the heat generated in resistor R_(1) during discharging.

The equivalent capacitance of the combination of three capacitors each of capacitance C between A and B as shown in figure is

In an LCR series circuit the capacitance is changed from C to 4C For the same resonant fequency the inductance should be changed from L to .

An AC of frequency f is flowing in a circuit containing a resistance R and capacitance C in series. The impedance of the circuit is equal to

In a series resonant L-C-R circuit, the capacitance is changed from C to 3C. For the same resonant frequency, the inductance should be changed from L to

Six equal capacitors each of capacitance C are connected as shown in the figure. The equivalent capacitance between points A and B is

The effective capacitance of two capacitors of capacitances C_(1) and C_(2)(C_(2)gtC_(1)) connected in parallel is (25)/(6) times the effective capacitance when they are connected in series. The ratio (C_(2))/(C_(1)) is

A combination arrangement of the capacitors is shown in the figure (i) C_(1)=3 mu F, C_(2) =6 mu F and C_(3)= 2 mu F then equivalent capacitance between 'a' and 'b' is :