B. Solve the following circuits (fill in the missing values). Remember to include yourreasoning when you are solving.1.1VR110T1202.V1309023103.VR1210334064.VR1410213304T905.VR12028040033416024030/235in

1. In series circuit, current has only one path to flow, so the current through terminal and all the…

Answered: B. Solve the following circuits (fill…

College Physics

11th Edition

ISBN:9781305952300

Author:Raymond A. Serway, Chris Vuille

Publisher:Raymond A. Serway, Chris Vuille

Chapter1: Units, Trigonometry. And Vectors

Section: Chapter Questions

Problem 1CQ: Estimate the order of magnitude of the length, in meters, of each of the following; (a) a mouse, (b)...

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A simple series circuit consists of a 140 2 resistor, a 24.0 V battery, a switch, and a 3.20 pF parallel-plate capacitor (initially uncharged) with plates 5.0 mm apart. The switch is closed at t=0s. ▾ 80 F3 a F4 BB Part A After the switch is closed, find the maximum electric flux through the capacitor. Express your answer in volt-meters. ▸ View Available Hint(s) ΜΕ ΑΣΦ ? Submit Part B V.m After the switch is closed, find the maximum displacement current through the capacitor. Express your answer in amperes. ▸ View Available Hint(s) ΜΕ ΑΣΦ Submit Part C Find the electric flux at t=0.50 ns. Express your answer in volt-meters. ▸ View Available Hint(s) F6 % 25 6 & 28 7 A বর DII DA F7 N E R T Y U D F G H 80 r F9 9 0 K 0 F10 L P
01701&cmid=97298page38 For the following circuit in the figure below. Determine V,-V, (in units of V) for E = 48.5 V. a t of estion 20 20 50 9. Select one: OA. 8.08 OB. -40.42 OC. -9.70 OD. -8.08 OE 9.70 ous page brt sc delete backsoace ent
150, and V = 10V. fll 2.) For the following circuit, R, = 50, R2 = 100, R3 out the VIPR chart: R23 R123 R2 R3 R1 V. R1 R3 R2
Part G: Use Kirchoff's Law to solve for all the voltage drops and branch currents. R1 R4 70 0 100 O ww ww R2 Vs2 15V 225 2 R5 125 Q ww Vs1 20V R3 Vs3 25 Q 6V ww
3. Four capacitors are connected to an EMF as shown with C₂ = 20 μF, C₂ = 4 μF, C₂ = 3 μF, and C₁ = 4 μF. The voltage across C₂ is 20 V. a. What is the equivalent capacitance of the circuit? Redraw circuit at each step. b. What is the EMF? You may (but do not need to) make a table similar to the first problem to help organize your calculation. B d. What is the total energy stored in the capacitors? Do it the easy way! to C₂ c. What would a voltmeter read if the COM lead is at A and the V lead is at B? In other words, what is VB - V₁? C4
For the circuit shown in Fig. Q1(a), the capacitor is initially charged to 3.5 V with polarity shown. compute the time constant, T of the circuit. I = 5.5 mA ↑ R₁ R₂ 2.6 ΚΩ 18.7 ΚΩ Fig. Ql(a) S C = 3.3 uF + 3.5 V
At t = 0 the switch S is closed with the capacitor uncharged. If C = 30 mF, ɛ = 30 V, and R = 7.7 kN, what is the potential difference across the capacitor when / = 2.0 mA? R O a. 22.30 V O b. 6.90 V O c. 18.45 V O d. 10.75 V O e. 14.60 V
b PROBLEM 4: E1 + E2 + E3 + In the circuit shown, Rq = 4 0, R2 = 5 N, R3 = 6 N, ɛ1 = 8 V, ɛ2 = 5 V and ɛz = 12 v. R2 R3 A. Solve for the currents 1, I2 and Iz using Kirchhoff's rules. B. What is the potential difference Vaf ? R1 d
a. What is the equivalent resistance for this circuit? R1=10 2 R3=4 2 R2=1 2 12 V R4=1 2 b. What total current in the circuit? с. What is the current through R1? d. What is the current through R2? е. What is the current through R3? f. What is the current through R4? g. What is the voltage drop across R1? h. What is the voltage drop across R2?
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B. Solve the following circuits (fill in the missing values). Remember to include your reasoning when you are solving. 1. 1 V R 1 10 T 120 2. V 1 30 90 2 3 10 3. V R 1 2 10 3 3 40 6 4. V R 1 4 10 2 1 3 30 4 T 90 5. V R 1 20 2 80 400 3 3 4 1 60 240 30 /23 5 in