


R$k2 L=120mH8 R=1280 Figure 4 Based on Figure 4 above, when the switch is closed, Calculate...
Problem 1: /10 A) For the RL circuit of Figure 1, the switch is closed at t=0 (charging phase). Report the time constant of the circuit T1 , voltage V, and current i, at time t = t1/2 23 82H £292 3v 20 20 Fig. 1: EMILM B) At time t = t;/2 , the switch in the RL circuit of Figure 1 is opened (discharging phase); Report the time constant of the circuit ta , voltage V, and current...
Rs=50 Wh. Problem 2. (8 Points) In the adjoining circuit, the switch, which had been closed for a sufficiently long time for steady state to be reached, is opened at time t = 0. Determine the following, as a function of time: (a) The current il(t) through the inductor, and (b) The voltage vr(t) across the 1k2 resistor. Vs fico) R. i kny (1) 20 V 1 H 3
8. Given [E, R,, R, L] in the circuit shown. Just after the switch is closed determine: a. the voltage across R,. b. the voltage across the inductor. The switch is left closed for a long time and then opened. Just after the switch is opened Determine: a. the voltage across R, b. the voltage across the inductor. 2
q R ww С I Switch Question 4: Suppose R 270 k2, C = 820 jF in Figure 4in section 6.2, calculate the voltage across the capacitor, 37 seconds after the resistor is connected across the charged capacitor. The capacitor is initially charged to 9 volts. 820 Fin Figure |4|in section 62., calculate the time Question 5: Suppose R constant of the circuit. The capacitor is initially charged to 9 volts 270 k, C
You encounter the circuit shown here with the switch S_1 closed and S_2 open with the ammeter showing a steady current of 5 A. If now suddenly S_1 is opened and S_2 is closed simultaneously, determine (A) current in the inductor right when the switch is closed (B) maximum charge that appears on the capacitor plates (C) current flowing through the inductor at the time when the capacitor is fully charged (D) energy stored in capacitor and inductor with the...
The switch in the circuit has been closed for a long time and is opened at t = 0. a. Calculate the initial value of I b. Calculate the initial energy stored in the inductor. c. What is the time constant of the circuit for t ≥ 0? d. What is the numerical expression for i() for t20? e. What percentage of the initial energy stored has been dissipated in the 4 Ω resistor 5ms after the switch has been opened?
(3) The RL circuit shown in Figure 3 has a switch that is closed att 0. Assume that the circuit has reached steady state prior to the switch closing. You are given R1 1 kQ, R2-10 kQ, R3-R4-100 k2, L 10 mH, Vs-5 V. (a) [15 pts] Calculate the steady-state inductor current before the switch is closed (b) [16 pts] Give the differential equation as an expression of the inductor current fort>0 (i.e. write the differential equation) (c) 13 pts]...
2.) For the inductor charging/ discharging circuit of Figure 3, switch S1 is closed at time t = 0 while switch S2 remains open. ( 240 pts) (a.) Determine the equations for the inductor voltage, current and time constant T. Assume the initial inductor current is zero. V.(t) = Il(t) = T1= (b) After switch Si has been closed for a time period of 0.75*T1, 51 remains closed and switch S2 is then end. Find the new equations for inductor...
450 mH 20 k 2 M 240 V 30 k2 6 k 2 Given: The switch, which has been closed for a very long time, is opened at t=0. Required: Determine the initial inductor current, iLo, the steady-state inductor current, iLoo, the time constant, t, in effect for t> 0 and the value of the inductor current at t = 25 us. Solution: iLomA iL = O mA T= C MS İL(25 us) = mA Submit these values
In the adjoining circuit, the switch, which had been closed for
a sufficiently long time for steady state to be reached, is opened
at time t = 0. Determine the following, as a function of time:
(a) The current I L(t) through the inductor, and (b) The voltage
v R(t) across the 1k Ohm resistor.
I=0 Rs=5.12 [26) Vs= + Ro= 1 k 2 20 V 1 H 0000 vr(t)