Answer:

Step-by-step explanation:
Let the two capacitance are

It is given that when capacitors are connected in parallel their equvilaent capacitance is 9.42 pF
So
--------EQN 1
And when they are connected in series their equivalent capacitance is 1.68 pF
So



-----EQN
On solving eqn 1 and eqn 2
