We need at least 10 more requests to produce the answer.
0 / 10 have requested this problem solution
The more requests, the faster the answer.
1. Study the sample problem sheet for problem 3-1. Use the circuit of Figure P3- 1...
Solve the circuit.
m/2 n in Figure Figure 3. (35 points)For the circuit shown in Figure C, determine the inductor currents (Is and i2) and the voltage across the switch (Vx) for all time t. 9OYO= 0=7 +. - *A + VE 2 ult) A Figure C
You connect a battery, resistor, and capacitor as in (Figure 1)
, where
E = 56.0 V , C = 5.00 μF , and R =
130 Ω . The switch S is closed at t = 0.
(A) When the voltage across the capacitor is 8.00 V, what is the
magnitude of the current in the circuit?
(B) At what time t after the switch is closed is the
voltage across the capacitor 8.00 V?
(C) When the voltage...
use R=1Ω, L=1H and C= 1/5 F Instead
(c) In the circuit shown in Figure P2.61(c), x(t) is the input voltage. The voltage y(t) across the capacitor is considered to be the system output wwww L 1H R=20 + y(t) x(t) C (c) Figure P2.61c (i) Determine the differential equation relating x(t) and y(t) (ii) Show that the homogeneous solution of the differential equation from part (i) has the forme "{K\ej2 + K2e"j2r}, and specify the value of a (iii...
3-13 please
3-13. For the circuit of Problem 3-9 (Figure P3-9), assume that the op-amp bias and offset para meters are as follows: Input offset voltage 1.2 mV Input bias current-60 nA Input offset current 8 nA a. Determine the magnitude of the output de voltage al produced, by the input offiset b. With Rc 0, determine the magnitude of the output de voltage al produced by the inp (You may now assume the ideal gain equation from Chapter 2...
1. Two 50 Ω resistors are in series in a circuit with a 10 V battery. The change in voltage, in the direction of the current, across either resistor is ___ V. 2. A 40 μF capacitor and a 80 μF capacitor are in series in a circuit with a 10 V battery. The voltage drop, in the direction of the current, across the 40 μF capacitor is ___ V. 3. A 40 μF capacitor and a 100 Ω resistor...
Figure 3. Use the following values for the comp onents in the circuit in Fig. 4: R,-120. R-16, R,-8 Ω, R4-40, Rs . 8 4. , R6 : 8 Ω, C's 100 μF' and Val-160 V. The circuit in Fig. 4 is critically damped. The switch is closed at t-o (25) a. Compute the current, i(t), for t>o. b. Compute the voltage, velt) and the current iz(t) for t>o i2(t) V(t) Rs R6
3. (Bonus) Determine a state variable model for the circuit in Figure 2. Note that If the voltage at the left and right hand side of a resistor R is v and vR, respectively, and the current is assumed to flow through the resistor from left to right, then the current passing through the resistor R is iR We know that the voltage drop across a capacitor is uc = the current passing through the capacitor branch is ic cat,...
1. Two 50 Ω resistors are in series in a circuit with a 10 V battery. The change in voltage, in the direction of the current, across either resistor is ___ V. Hint: Can you see why the voltage drop in the direction of the current is negative? 2. A 40 μF capacitor and a 80 μF capacitor are in series in a circuit with a 10 V battery. The voltage drop, in the direction of the current, across the...
Problem 3. Using the Laplace transformation, obtain the current I2(s) of Problem 1. Assume that all the initial currents are zero, the initial voltage across capacitor Cı is zero, v(t) is zero, and the initial voltage across C2 is 10 volts
P3. In the circuit shown in Figure 3, (a) determine the current I, in the 1-2 resistor. (b) Determine the current I2 in the 2-2 resistor. (c) Determine the current I3 in the 3-2 resistor. 12 ww- 20 6V 2V I1 ww 10 I3 www 30 Figure 3, Problem 3