List of top Physics Questions on Capacitors in Parallel and in Series asked in MHT CET

A parallel plate capacitor of capacitance 'C' is connected to a battery and charged to a potential 'V'. Another capacitor of capacitance '\(3C\)' is charged to a potential '\(3V\)'. The charging battery is then disconnected and both the capacitors are connected in parallel to each other such that positive terminal of one is connected to negative terminal of the other. The final energy of the configuration is
Three identical capacitors connected in series have net capacitance '\(x\)'. Then they are connected in parallel. The ratio of energy stored in series configuration to that in parallel configuration is (if both configurations are connected to the same source)
Two indentical metal plates are given charges \(q_1\) and \(q_2\) \((q_2 < q_1)\) respectively. They are brought close together to form a parallel plate capacitor with capacitance 'C'. The potential difference 'V' between the plates is
Three capacitors \(C_1\), \(C_2\) and \(C_3\) are connected to voltage source V as shown in figure. The voltage across \(C_3\) will be
Capacitors of capacities \(C_1\) and \(C_2\) are connected in series. If the combination is connected to a supply of V volt then the potential difference across capacitor \(C_2\) is
Four capacitors are connected to a battery as shown in figure. The ratio of charges on capacitors \(C_2\) and \(C_4\) is
Two identical parallel plate air capacitors are connected in series to a battery of e.m.f. 'V'. If one of the capacitor is inserted in liquid of dielectric constant 'K' then potential difference of the other capacitor will become

When three capacitors of capacitances ' C ', ' 2 C '? and ' 3 C ' are connected in series. The potential difference applied across the combination is ' \(V\) '. The energy stored in the circuit is

Three capacitors each of capacitance ' C ' and breakdown voltage ' $V$ ' are connected in series. The capacitance and breakdown voltage of the series combination will be respectively
The resultant capacity between points A and B in the given circuit is
In the arrangement of the capacitors as shown in figure, each capacitor is of $6\ \mu\text{F}$, then equivalent capacity between points A and B is
The resultant capacity between points A and B in the given circuit is