Q4 (4 points)Consider the circuit in the figure.15 µF30 μF100 V10 μFSwitch(a) Suppose the switch is open, as shownon the 30 µF capacitor.the figure. Find the equivalent capacitance of this combinaof capacitors, and the chargepred(b) Suppose the switch is closed. Find the equivalent capacitance of this combination of capacitors, and the charge stored on the 30 µFсарacitor.

Here given a circuit diagram with source 100 volt.There given a switch. We have to calculate the…

Consider the circuit in the figure. 15 μ 30 µF 100 V 10 μF Switch (a) Suppose the switch is open, as shown in the figure. Find the equivalent capacitance of this combination of capacitors, and the charge stored on the 30 µF capacitor. (b) Suppose the switch is closed. Find the equivalent capacitance of this combination of capacitors, and the charge stored on the 30 µF сарacitor.

Consider the circuit in the figure. 15 μ 30 µF 100 V 10 μF Switch (a) Suppose the switch is open, as shown in the figure. Find the equivalent capacitance of this combination of capacitors, and the charge stored on the 30 µF capacitor. (b) Suppose the switch is closed. Find the equivalent capacitance of this combination of capacitors, and the charge stored on the 30 µF сарacitor.

Principles of Physics: A Calculus-Based Text

5th Edition

ISBN:9781133104261

Author:Raymond A. Serway, John W. Jewett

Publisher:Raymond A. Serway, John W. Jewett

Chapter20: Electric Potential And Capacitance

Section: Chapter Questions

Problem 49P

See similar textbooks

Similar questions

Consider the circuit shown in the figure below. The four capacitors have capacitances C₁ = 7μF, C₂ = 1.4µF,, C3 = 11.5µF, C₁ = 8.8μF and are connected to a battery of voltage V = 3.1 Volts. When all capacitors are fully charged, determine the voltage across C₂. Express your answer in units of volts using two decimal places. C₂ C3 TO V C4
CA C, AV C3 C2 C5 In the circuit above C1=3nF, C2=7nF, C3=9nF, C4=12NF, C5=161F, the battery emf = 17V. Find the energy stored on C3., when al capacitors are fully charged. State your answer in nJ (nanoJoules) to the nearest nJ. In addition to entering your final numerical answer into the box, solve this problem in detail on paper. Make sure that you write your solution neatly, starting with the clear diagram and all variables on it.
Problem 2 For the circuit shown in Fig.1 below, C₁ = 5μF, C₂ = 4μF, C3= 6μF and AV = 65V. Find: (a) the equivalent capacitance, (b) the charge on each capacitor and (c) the potential difference across each capacitor. AV Figure 1: Problem 2.
The circuit in the figure has 5 parallel plate capacitors: C; = 8pF, C2= 2pF, C3= 5pF, C4= 3pF, and Cs= 6pF. The potential difference supplied by the battery is V-10v. A. What is the equivalent capacitance of the circuit? (Give your answer in pF)| C5 B. How much energy must be supplied by the battery to charge all 5 capacitors? C. What is the charge on and voltage across capacitor C2?
In the circuit below, the values of the capacitors are C1=9.38uF, C2=2.99uF, C3=5.18uF. The voltage of the battery is 5.53V.What is the charge (uC) on capacitor C2 to 3 sig figs?
Find the electric potential at points A and B for the circuit shown below. A E = 24 V battery is connected to R, = 25 0, R2 = 5 0, R; = 10 0, and R4 = 15 N. Note that point C is grounded (Ve = 0). R, R, В ww.gm E R3 R4 The potential at point A, VA = Units V The potential at point B, V3 = Units V
Consider the circuit shown in the figure below. The four capacitors have capacitances C1=10µF, C2=11pF, C3=19pF, C4=11µF and are connected to a battery of voltage V=36Volts. When all capacitors are fully charged, determine the charge on C1. Express your answer in units of pC using zero decimal places. C2 C3 V
Two capacitors provide an equivalent capacitance of 28.00 μF when connected in parallel and 7.00 uF when connected in series. 1) What is the smaller capacitance of the capacitors? If both capacitors have the same capacitance, enter this value. (Express your answer to three significant figures.) Submit μF 2) What is the larger capacitance of the capacitors? If both capacitors have the same capacitance, enter this value. (Express your answer to three significant figures.) Submit μF
For the circuit shown in the figure below, C = 7.82 µF, & = 80 V, and R = 490 2. After having been at contact a for a long time, the switch throw is rotated to contact b. A с R 1) What is the charge on the upper plate of the capacitor just as the switch throw is moved to contact b? μC Submit You currently have 0 submissions for this question. Only 10 submission are allowed. You can make 10 more submissions for this question. 2) What is the current just after the switch throw is rotated to contact b? A Submit You currently have 0 submissions for this question. Only 10 submission are allowed. You can make 10 more submissions for this question. 3) What is the time constant of this circuit? ms Submit You currently have 0 submissions for this question. Only 10 submission are allowed. You can make 10 more submissions for this question. 4) How much charge is on the upper plate of the capacitor 6.4 ms after the switch throw is rotated to contact b? μC Submit
The capacitors C₁ = 42.5 µF and C₂ = 127.5 µF are connected to a 9-V battery as shown in the figure below. What is the equivalent capacitance of the circuit? C₁ HH S €₂ V HI The equivalent capacitance, Ceq = What is the charge in each capacitor? The charge in C₁, Q₁ = Units UC The charge in C₂, Q₂ = What is the energy stored in each capacitor? The energy in C₁, U₁ : = The energy in C₂, U₂ = Units HC Units mJ Units mJ Units UF
The question is . A) What is the time constant for the circuit shown in the figure below if the value of of e=12.0 V, R=22.8ohm, and C= 88.1mF. B Suppose the switch is closed and the capacitor starts to charge. How much of the charge will be accumulated on each plate of the capacitor after 3 s of charging.. Submit answer the value of the charge (in mC, with two decimal places).
2:21 Send a chat 10. The following electric circuit consists of a power source, two ammeters i DandO, ), two resistors (R, and R) and a voltmeter V, across the terminals of resistor R. reads I A. Calculate the potential difference (voltage), Ammeter reads 3 A and ammeter I-IA I-3A R. R. V=?