[" An inductor of inductance "L400m" H and "],[" resistors of resistances "R_(1)=2Omega" and "R_(2)=2],[Omega" are connected to a battery of emf "12V" as "],[" shown in the figure.The internal resistance "],[" of the battery is negligle.The switch "S" is "],[" closed at "t=0." The potential drop across Las a "],[" function of time is "]

An inductor of inductance L = 400 mH and resistors of resistance R_(1) = 2Omega and R_(2) = 2Omega are connected to a battery of emf 12 V as shown in the figure. The internal resistance of the battery is negligible. The switch S is closed at t = 0 . The potential drop across L as a function of time is

An inductor of inductance L = 400 mH and resistors of resistance R_(1) = 2Omega and R_(2) = 2Omega are connected to a battery of emf 12 V as shown in the figure. The internal resistance of the battery is negligible. The switch S is closed at t = 0 . The potential drop across L as a function of time is

An inductor of inductance L = 400 mH and resistors of resistance R_(1) = 2Omega and R_(2) = 2Omega are connected to a battery of emf 12 V as shown in the figure. The internal resistance of the battery is negligible. The switch S is closed at t = 0 . The potential drop across L as a function of time is

An inductor of inductance L = 400 mH and resistors of resistance R_(1) = 2Omega and R_(2) = 2Omega are connected to a battery of emf 12 V as shown in the figure. The internal resistance of the battery is negligible. The switch S is closed at t = 0 . The potential drop across L as a function of time is

An inductor of inductance L=400mH and resistors of resistances R_(1)=2 Omega and R_(2)=2 Omega are connected to a battery of emf 12 V as shown in figure.The internal resistance of the battery is negligible.The switch S is closed at t=0 .The potential drop across L as a function of time is:

An inductor of inductance L=400 mH and resistor of resistance R_(1) = 2(Omega) and R_(2) = 2 (Omega) are connected to a battery of emf E = 12 Vas shown in the figure. The internal resistance of the battery is negligible. The switch S is closed at time t =0. What is the potential drop across L as a function of time? After the steady state is reached, the switch is opened. What is the direction and the magnitude of current through R_(1) as a function of time?

An inductor of inductance L=400 mH and resistors of resistances R_1=2Omega and R_2=2Omega are connected to a battery of emf E=12 V as shown in the figure. The internal resistance of the battery is negligible. The switch S is closed at time t=0 . What is the potential dro across L s a function of time? After the steady state is reached, the switch is opened. What is the direction ad the magnitude of current throough R_1 as a function of time?