Consider the circuit below with the switch closed and then opening at t=0, with R1 = 2Ω, R2 = 3Ω, R3 = 3Ω, L= 2H, calculate the current ia(t) for all times. **Problem Statement:**Consider the circuit below with the switch closed and then opening at \( t=0 \), with \( R_1 = 2 \Omega \), \( R_2 = 3 \Omega \), \( R_3 = 3 \Omega \), \( L= 2H \). Calculate the current \( i_a(t) \) for all times. If you need to use a method, I recommend nodal analysis.**Circuit Description:**- The circuit is composed of the following components: - Resistor \( R_1 \) with a resistance of \( 2 \Omega \). - Resistor \( R_2 \) with a resistance of \( 3 \Omega \). - Resistor \( R_3 \) with a resistance of \( 3 \Omega \). - Inductor \( L \) with an inductance of \( 2 \, \text{H} \). - A current source supplying \( 2 \, \text{A} \).- The circuit contains a switch that is initially closed. At \( t=0 \), the switch is opened.**Circuit Configuration:**- The circuit features a loop containing \( R_1 \) and in parallel, an inductor \( L \).- \( R_2 \) and \( R_3 \) are arranged in series with the switch initially closed, connecting to the parallel branch.- The current source supplies \( 2 \, \text{A} \) into the circuit, as indicated by the arrow.**Analysis Method:**- It is recommended to use nodal analysis to solve for the current \( i_a(t) \) at all times. This technique involves analyzing the voltage at the nodes to determine the current distribution in the circuit, especially after the switch is opened at time \( t=0 \).

The general expression of Current in RL Circuit In Source Free circuit iL(t)=iL(0-) e-ttime constant Circuit with Source iL(t)=iL(∞) +(IL(0-)-IL(∞)) e-ttime constant Solution and explanation First, find the inductor current when t<0 Then apply the general expression of inductor current in First order circuit Note: Negative / Positive indicates the current direction. Please choose magnitude for the option