The equivalent capacitance of the combination between $A$ and $B$ in below figure is $4 \mathrm{\mu F}$. 

What will be the potential drop across each capacitor? 

How would you connect $8,12$ and $24 \mathrm{\mu F}$ capacitors to obtain minimum capacitance.

How would you connect $8,12$ and $24 \mathrm{\mu F}$ capacitors to obtain maximum capacitance? If a potential difference of $100$ volt is applied across the system, what would be the charges on the capacitors in each case?

Calculate the capacitance of the capacitor in Figure below, if the equivalent capacitance of the combination between $A$ and $\mathrm{B}$ is $15 \mathrm{\mu F}$.

In the combination of four identical capacitors shown in Figure below, the equivalent capacitance between points $P$  and $Q$  is $1 \mathrm{\mu F}$. Find the value of each separate capacitance.

Find the equivalent capacitance of the combination shown in Figure between the points $A$ and $B$ .

For the network shown in Figure, calculate the equivalent capacitance between points $A$ and $B$. 

Calculate the capacitance of the capacitor $C$ in Figure. The equivalent capacitance of the combination between $P$ and $Q$ is $30 \mathrm{\mu F}$.

Calculate the equivalent capacitance between points $A$ and $B$ of the combination shown in Figure.