Two capacitors, C1=5µF and C2=12µF, are connected in parallel, and the resulting combination is connected to a 9 V battery. What is the potential difference across each capacitor? OA) 9 V OB) 15 V O C) 12 V O D) 6 V DE) 3 V

Two capacitors, C1=5µF and C2=12µF, are connected in parallel, and the resulting combination is connected to a 9 V battery. What is the potential difference across each capacitor? OA) 9 V OB) 15 V O C) 12 V O D) 6 V DE) 3 V

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 42P

See similar textbooks

Related questions

Q: Find the total energy stored (in units of mJ) in the group of capacitors shown below given that the…

A: Energy stored is given by E= 1/2 CV²

Q: Two capacitors in series, C1= 9.0 uF and C2= 5.0 uF, are connected to a 12.0 V battery. What is the…

Q: Three capacitors are connected in parallel and have the following voltage ratings: C, = 32 uF with…

A: Given: The connection of the capacitors is in parallel. C1=32 μF with 80 VC2=65 μF with 220 VC3=105…

Q: 24.40 The capacitors in the circuit shown in the figure have capacitances C, = 18.0 p.F, C, = 11.3…

A: Given:- C1=18.0 μFC2=11.3 μFC3=33.0 μFC4=44.0 μF V=10.0 V Find:- Total charge the power source…

Q: Two capacitors C1 and C2 are connected in parallel. Which of the following statements is correct? O…

Q: As shown, the capacitors are charged to a potential difference of 100 V but with opposite polarity.…

Q: 5.77 µF 5.4 µF a 1.47 µF с 3.91 pF 29.1 V Calculate the charge on the 5.77 µF (upper left)…

Q: Two capacitors, C1 = 6.00 µF and C2 = 11.0 µF, are connected in parallel, and the resulting…

Q: Two capacitors C, = 3.00 ÂµF and C2 = 14.0 ÂµF are connected in series to a 9.00 V battery. (a) Find…

Q: A capacitor (3.0-F) is charged to 40 V. Another capacitor (5.0-µF) is charged to 18 V. Both…

A: Given: C1 = 3 μFV1 = 40 vC2 = 5 μFV2 = 18 V

Q: Each plate of a capacitor stores a charge of magnitude 1mC when a 100-V potential difference is…

Q: The figure represents two parallel-plate capacitors of capacitance C1 and C2 respectively connedted…

Q: 15.0 µF 3.00 µF |20.0 μF a 6.00 μF Four capacitors are connected as shown in above. Which of the…

A: If two capacitor C1 & C2 are connected series then their equivalent capacitance Cs is given…

Q: I. Find the equivalent capacitance of the network of capacitors. Ceq %3D 5.0 μ 24 µF A 4.0 μ 12 μ В…

A: I. At Right capacitors are in series1C1=124μF+112μF+18μFC1=4.0 μFNow, C1 is parallel with middle 4.0…

Q: Suppose you have a 9.10 V battery, a 2.50 µF capacitor, and a 7.35 μF capacitor. (a) Find the charge…

A: Given value--- V = 9.10 V. C1 = 2.50 uF . C2 = 7.35 uF. We have to find--- (a) Find the charge…

Q: Four capacitors are connected as shown in the figure below. (Let C = 10.0 µF.) (a) Find the…

A: Capacitor C is in series with capacitor C3. This series connection is in parallel with the capacitor…

Q: Two capacitors C1 = 7.4 µF, C2 individually to V1 = 17.0 V, V2 = 3.5 V. The two = 14.7 µF are…

A: Given values :C1 = 7.4μF C2 = 14.7μF V1 = 17 V V2 = 3.5 V

Q: A 1-megabit computer memory chip contains many 60.0 × 10−15-F capacitors. Each capacitor has a plate…

A: It is given that,

Q: A capacitor is marked 6 V, 22 x 10-6 F What is the charge on the capacitor when the potential…

A: Given data: Capacitance (C) = 22×10-6 F Potential difference (V) = 3.0 V Required: Charge (q)

Q: Find the total energy stored (in units of mJ) in the group of capacitors shown below given that the…

A: Find the total energy stored ( in units of mJ) in the group of capacitors shown below given that the…

Q: Five capacitors are connected as shown in the following figure. 2.0 µF 1.0 μ 2.0 μF a b 4.0 µF 4.0…

Q: 十++ A parallel plate capacitor is made up of two plates, each having an area of 8.0×10-4 m? and…

A: A parallel plate capacitor has a capacitance given by:C=Aεd………(1)where,d is the distance between the…

Q: nected to a 9.00-V battery. (a) Find the equivalent capacitance of the combination. (b) Find the…

A: Given:- Two capacitors, C1 = 4.31 μF and C2 = 12.9 μF, The capacitance is connected in parallel, The…

Q: Problem A parallel-plate capacitor has an area A = 1.70 × 10-4 m2 and a plate separation d = 1.25…

Q: Two capacitors, C1 = 4.00 μF and C2 = 14.6 μF, are connected in parallel, and the resulting…

A: When the two cpapcitors are connected in parallel combination, the equivalent capaciatnce is give by…

Q: Three capacitors are connected in parallel and have the following voltage ratings: C = 32 uF with 80…

Q: Three capacitors with capacitances C1 = 6 µF, C2 = 6 µF, and C3 = 6 µF are connected in a circuit as…

Q: What total capacitances (in pF) can you make by connecting a 5.60 µF and a 9.50 uF capacitor…

A: Answer We can assign capacitors in parallel and series. For series capacitor equivalent capacitance…

Q: As shown, the capacitors are charged to a potential difference of 100 V but with opposite polarity.…

Q: Two parallel-plate capacitors of capacitance C-C2= 10.9 µF are connected in series as shown in…

A: Given: C1=C2=10.9 μF=10.9×10-6 FCeq=8.94×10-6 F

Q: A parallel plate capacitor connected to a 20.0V battery has a charge with magnitude of 50 nC on each…

A: V= 20volts Q= 50nC

Q: 24.38 Three capacitors with capacitances C = 3.10 nF, C2 = 1.30 nF, and C, = 3.70 nF are wired to a…

A: The given circuit can be simplified in the following way. Here, Cp represents the equivalent…

Q: Find the total energy stored (in units of m) in the group of capacitors shown below given that the…

Q: 2) Two parallel-plate capacitors are constructed using dielectric materials with dielectric…

A: This question is based on combination of capacitors.

Q: Four capacitors are connected as shown in the figure below. (Let C = 18.0 µF.) (b) Calculate the…

A: Given: C = 18.0 µF. ∆Vab = 17.0 V.

Q: The figure represents two parallel-plate capacitors of capacitance C1 and C2 respectively connected…

A: The potential difference is same

Q: Where a 2.7 V battery is connected to a network of capacitors with C1 = 54 F, C2 = 63 F, and C3 = 45…

Q: Find the total energy stored (in units of mJ) in the group of capacitors shown below given that the…

Q: In the figure shown below, C, = 6.0 µF, C2 = 4.0 µF, C3 = 12.0 µF and the voltage of the battery is…

Q: Two capacitors, C, = 4.45 µF and C, = 14.0 µF, are connected in parallel, and the resulting…

A: Expression for equivalent capacitance in parallel - Ceq=C1+C2+.... Charge stored in capacitor-…

Q: Q. The capacitances are C= 0.5 µF and C2= 1.5 µF, and both capacitors are charged to a potential…

A: The potential difference between a and b will be the common potential difference between both the…

Q: = 6.00 µF and C, = 10.0 µF, are connected in parallel, and the resulting combination is connected…

Q: Points A and B are connected to two terminals of 24 V battery. C=48µF; C2=10µF; C3=30µF; C4=60µF…

Q: Find the total energy stored ( in units of mJ) in the group of capacitors shown below given that the…

A: Given that the potential difference between A and B in the given circuit is is equal to 51.3 volt…

Q: Two capacitors, C, = 5.27 µF and C, = 11.7 µF, are connected in parallel, and the resulting…

Q: What total capacitances can you make by connecting a 5pF and a 10µF capacitor together? O 12µF O…

A: C1 = 5 μF C2 = 20 μF To find = Total capacitance

Q: Find the total energy stored ( in units of mJ) in the group of capacitors shown below given that the…

A: Find the equivalent capacitance. C1=10+50μFC1=60 μF 1Ceq=160+120Ceq=15 μF

Q: 3) A 2.0-uF capacitor and a 4.0-pF capacitor are connected in series across an 8.0-V potential…

Concept explainers

Proper Length

The theory of special relativity explains the connection between space and time to objects that move in a straight line at a constant speed. The objects move at the speed of light. When an object approaches light speed, its mass is endless and cannot move faster than light. The most crucial postulate of Einstein's special relativity is that the laws of nature do not change in each frame of reference.

Question

The Question11

Two capacitors, C1=5µF and C2=12µF, are connected in parallel, and the resulting combination is connected to a 9 V battery. What is the potential
difference across each capacitor?
11 -
A) 9 V
O B) 15 V
O C) 12 V
O D) 6 V
O E) 3 V

Expert Solution

This question has been solved!

Explore an expertly crafted, step-by-step solution for a thorough understanding of key concepts.

This is a popular solution!

SEE SOLUTION Check out a sample Q&A here

Step 1

VIEW

Step 2

VIEW

Trending now

This is a popular solution!

Step by step

Solved in 2 steps

SEE SOLUTION Check out a sample Q&A here

Knowledge Booster

Learn more about

Need a deep-dive on the concept behind this application? Look no further. Learn more about this topic, physics and related others by exploring similar questions and additional content below.

Similar questions

Three capacitors are connected to a battery as shown in Figure P16.44. Their capacitances are C1 = 3C, C2 = C, and C3 = 5C. (a) What is the equivalent capacitance of this set of capacitors? (b) State the ranking of the capacitors according to the charge they store from largest to smallest. (c) Rank the capacitors according to the potential differences across them from largest to smallest. (d) Assume C3 is increased. Explain what happens to the charge stored by each capacitor. Figure P16.44
A 10.0-F capacitor is charged to 15.0 V. It is next connected in series with an uncharged 5.00-F capacitor. The series combination is finally connected across a 50.0-V battery as diagrammed in Figure P26.63. Find the new potential differences across the 5.00-F and 10.0-F capacitors after the switch is thrown closed.
(i) A battery is attached to several different capacitors connected in parallel. Which of the following statements is true? (a) All capacitors have the same charge, and the equivalent capacitance is greater than the capacitance of any of the capacitors in the group, (b) The capacitor with the largest capacitance carries the smallest charge, (c) The potential difference across each capacitor is the same, and the equivalent capacitance is greater than any of the capacitors in the group. (d) The capacitor with the smallest capacitance carries the largest charge. (e) The potential differences across the capacitors are the same only if the capacitances are the same, (ii) The capacitors are reconnected in series, and the combination is again connected to the battery. From the same choices, choose the one that is true.
In Figure P27.7, capacitor 1 (C1 = 20.0 F) initially has a potential difference of 50.0 V and capacitor 2 (C2 = 5.00 F) has none. The switches are then closed simultaneously. a. Find the final charge on each capacitor after a long time has passed. b. Calculate the percentage of the initial stored energy that was lost when the switches were closed. FIGURE P27.7
If three unequal capacitors, initially uncharged, are connected in series across a battery, which of the following statements is true? (a) The equivalent capacitance is greater than any of the individual capacitances, (b) The largest voltage appeal's across the smallest capacitance, (c) The largest voltage appears across the largest capacitance. (d) The capacitor with the largest capacitance has the greatest charge, (e) The capacitor with the smallest capacitance has the smallest charge.
(a) Find the equivalent capacitance between points a and b for the group of capacitors connected as shown in Figure P16.46 if C1 = 5.00 F, C2 = 10.00 F, and C3 = 2.00 F. (b) If the potential between points a and b is 60.0 V, what charge is stored on C5? Figure P16.46
An anxious physicist worries that the two metal shelves of a wood frame bookcase might obtain a high voltage if charged by static electricity,, perhaps produced by friction, (a) What is the capacitance of the empty shelves if they have area 1.00102m2 and are 0.200 m apart? (b) What is the voltage between them if opposite charges of magnitude 2.00 nC are placed on them? (c) To show that this voltage poses a small hazard, calculate the energy stored, (d) The actual shelves have an area 100 times smaller than these hypothetical shelves. Are his fears justified?
A 1-megabit computer memory chip contains many 60.0 1015-F capacitors. Each capacitor has a plate area of 21.0 1012 m2. Determine the plate separation of such a capacitor. (Assume a parallel-plate configuration.) The diameter of an atom is on the order of 1010 m = 1 . Express the plate separation in angstroms.
A parallel-plate capacitor is connected to a battery. What happens to the stored energy if the plate separation is doubled while the capacitor remains connected to the battery? (a) It remains the same. (b) It is doubled. (c) It decreases by a factor of 2. (d) It decreases by a factor of 4. (e) It increases by a factor of 4.
Three capacitors are connected to a battery as shown in Figure P20.50. Their capacitances are C1 = 3C, C2 = C, and C3 = 5C. (a) What is the equivalent capacitance of this set of capacitors? (b) State the ranking of the capacitors according to the charge they store from largest to smallest. (c) Rank the capacitors according to the potential differences across them from largest to smallest. (d) What If? Assume C3 is increased. Explain what happens to the charge stored by each capacitor. Figure P20.50
A parallel-plate capacitor is connected to a battery. What happens to the stored energy if the plate separation is doubled while the capacitor remains connected to the battery? (a) It remains the same, (b) It is doubled. (c) It decreases by a factor of 2. (d) It decreases by a factor of 4. (e) It increases by a factor of 4.
A nervous physicist worries that the two metal shelves of his wood frame bookcase might obtain a high voltage if charged by static electricity, perhaps produced by friction. (a) What is the capacitance of the empty shelves if they have area 1.00102 m2 and are 0.200 m apart? (b) What is the voltage between them it opposite charges of magnitude 2.00 nC are placed on them? (C) To show that this voltage poses a small hazard, calculate the energy stored.