

100 V 5. (8) Using current division (CD), find the value of all the currents ii...
1- Find the currents Ii and I2 and the voltage VAB 2Ω 6 V 2- Initially the capacitor is charged with 20 uC. At t-0 the switch is closed. Find the time constant, the initial current in the circuit (at t-0), and the time needed for the current to drop to 1/3 of its initial value. Veキ104F
(v) v3 v2-VI (ii) In the circuit below, find the currents Ii and I2. Then find node b voltage 3k1, 4 k 6V4k 3 k 1 k I
Using the Loop Current Method, find all currents through the
resistors in the circuit below
CET 243 Loop Current Method: Find all currents through the resistors in the circuit below. 3. R1 R2 470Ω 820Ω V2 V1 R3 220Ω 二10V
.Find the current through the 5 volt source. (All resistances are in Ohms) 5v 30 40 (10 points) 4. Using Kirchhoffs rules, find the currents Ii, 12, and Is in the circuit shov R?= 1.5Q, R2 = 3.0 ?, and R3-5.0 ?. 10 V
8. Find all the currents in the following circuit by using Kirchoffs Rules and Ohms law 12 R4 20 I3 R2 E,-12.0 V E2=12.0 V Es= 6.0 Ri 10 Ohms 2 2 Ohms R3 3 0 Ohms R4 20 Ohms
Voltage and Current Division For the circuit shown, calculate V. V and Vs when V. = 7 V, R; = 18 2. R2 = 66 2. R3 = 57 2. R4 = 37 and Rs = 332 Express your answer to two significant figures, with appropriate units View Available Hint(s) @? R-180 R2 = 660 + V + 12 0.597 V = 7 V R3 - 570 V 1.89 V R$ = 33 R = 37 Vs + - V4...
6. Use the Voltage-Division principle to find voltage v. Then find the current i1, i2, and is of the circuit using the principle of Current-Division. R,-: 20 Ω 2 20Ω R,-20 Ω 10 V
2 9 4Ω 3Ω 8 V 9 V Assume that this circuit has reached steady state (i.e, all the currents are constant). Find l, 12, ls la and Is. Also, find the charge on the capacitor.
2 9 4Ω 3Ω 8 V 9 V Assume that this circuit has reached steady state (i.e, all the currents are constant). Find l, 12, ls la and Is. Also, find the charge on the capacitor.
Determine the all of the voltages and the currents, including the total current, of this circuit. Also draw an equivalent circuit. 125 V 20 ? 100 ? 50?
Beta = 100
10 V IRE R3 Fig. 1: A current source and mirror circuits using npn BJTS Design the current source and mirror circuit in Fig. 1 such that IREF = 10 mA (13%) nominally. Use supply of Vcc = 10 V, and use an average value for ß that you found in your previous experiments or that from the datasheet. Find the value of R, that satisfies the design requirements. In your pre- lab, perform the following: 1....