In the given circuit two batteries of emf E and E and 3 capacitors of capacitance C1, C2 and C2 are connected. Below is a List - II for the different set of values of potential difference between M and N and value of E with  are given in List-I.List-I List-II(P)  = 2; E = 100 volt (1) 0 volt(Q)  = 1; E = 200 volt (2) 100 volt(R)  = 3; E = 100 volt (3) 25 volt(S)  = 4; E = 200 volt (4) 40 volt

In the figure provided, an emf of 9 V is connected to the three capacitors. If C1𝐶1 = 5.80 μF, C2𝐶2 = 11.1 μF, and C3𝐶3 = 2.10 μF, what is the potential difference across C1𝐶1?

Two capacitors (C1 = 8.00 µF and C2 = 13.0 µF) are now connected in series and to a 9.00-V battery.(a) Find the equivalent capacitance of the combination. µF(b) Find the potential difference across each capacitor.V1 = What is the relationship between the charges on each capacitor and the charge that would exist on an equivalent capacitor? VV2 = V(c) Find the charge on each capacitor.Q1 = µCQ2 = µC

Two capacitors, one 12.0 𝜇𝐹 and the other of unknown capacitance C, are connected in parallel across a battery with an emf of 9.00 V. The total energy stored in the two capacitors is 0.0115 J. Determine the capacitance C.a.272 𝜇𝐹b.180 𝜇𝐹c.12 𝜇𝐹d.284𝜇𝐹

Calculate capacitance of each capacitor if equivalent capacitance of the combination is 4 pF.(ii) Calculate the potential difference between the plates of X and Y.(iii) Estimate the ratio of electrostatic energy stored in X and Y

Two conductors having net charges of +18.0 µC and -18.0 µC have a potential difference of 18.0 V between them.(a) Determine the capacitance of the system. Check the units of capacitance and potential difference carefully. F(b) What is the potential difference between the two conductors if the charges on each are increased to +324.0 µC and -324.0 µC?