Step 1: Recall the Concept of Displacement Current
Displacement current is given by:
$$ I_d = \epsilon_0 \frac{d\Phi_E}{dt} $$
Where:
\( I_d \) = Displacement current
\( \epsilon_0 \) = Permittivity of free space
\( \Phi_E \) = Electric flux
\( t \) = Time
Step 2: Relate to Conduction Current
In a capacitor circuit, the displacement current in the gap is equal in magnitude to the conduction current in the connecting wires. This ensures continuity of current in the circuit.
Step 3: Conclusion
The displacement current flows in the same direction as the conduction current and has the same magnitude.
Identify the valid statements relevant to the given circuit at the instant when the key is closed.
\( \text{A} \): There will be no current through resistor R.
\( \text{B} \): There will be maximum current in the connecting wires.
\( \text{C} \): Potential difference between the capacitor plates A and B is minimum.
\( \text{D} \): Charge on the capacitor plates is minimum.
Choose the correct answer from the options given below:
The velocity (v) - time (t) plot of the motion of a body is shown below :
The acceleration (a) - time(t) graph that best suits this motion is :
List-I | List-II | ||
(A) | ![]() | (I) | ![]() |
(B) | ![]() | (II) | CrO3 |
(C) | ![]() | (III) | KMnO4/KOH, \(\Delta\) |
(D) | ![]() | (IV) | (i) O3 (ii) Zn-H2O |