
Capacitors $ C_1 $ and $ C_2 $ are connected in parallel to a battery. The provided charge-time graph illustrates the charge on each capacitor over time.
Observation from the graph indicates that as $ t \to \infty $, $ C_1 $ accumulates a greater charge than $ C_2 $.
Due to their parallel connection, both capacitors experience the same voltage $ V $.
The relationship between charge ($ Q $), capacitance ($ C $), and voltage ($ V $) is defined by $ Q = CV $.
Given that $ C_1 $ holds a higher charge ($ Q_1 > Q_2 $) at the identical voltage $ V $, it logically follows that $ C_1 $ possesses a larger capacitance ($ C_1 > C_2 $).
The energy stored in a capacitor is calculated using $ U = \frac{1}{2} CV^2 $.
Since $ C_1 $ is greater than $ C_2 $ and both capacitors share the same voltage $ V $, the energy stored in $ C_1 $ ($ U_1 $) exceeds that stored in $ C_2 $ ($ U_2 $), meaning $ U_1 > U_2 $.
Consequently, we conclude that $ C_1 > C_2 $ and $ U_1 > U_2 $.
Final Answer:
The final answer is $ \ C_1 > C_2,\ U_1 > U_2 $.
Two charges \( +q \) and \( -q \) are placed at points \( A \) and \( B \) respectively which are at a distance \( 2L \) apart. \( C \) is the midpoint of \( AB \). The work done in moving a charge \( +Q \) along the semicircle CSD (\( W_1 \)) and along the line CBD (\( W_2 \)) are 
Find work done in bringing charge q = 3nC from infinity to point A as shown in the figure : 