A parallel-plate capacitor has the capacitance of C = 10 µF when the distance of thetwo plates is d = 5 cm. A battery with the emf = 3 V is used to charge the capacitor.%3D1. How much charge can be put on the parallel-plate capacitor? (in the unit of pC)Q =Submit AnswerTries 0/2Now, consider the following two cases separately:Case 1: if the emf stays connected, but the distance of the parallel plates is changedto d = 80 cm.2. What is the new capacitance C1 and how much is the charge Q1in the capacitor?C1 =µF%DQ1 =%3DSubmit AnswerTries 0/2Case 2: After the initial charging, the emf is removed. Therefore, the amount ofcharge you calculated from the question #1 remains in the capacitor. Now, again, thedistance of the parallel plates is changed to d1 = 80 cm.3. What is the potential difference V1 across the capacitor?V1 =%3D

Given data, capacitance, C1 = 10 μF distance between the 2 plates, d = 5 cm potential difference…

A parallel-plate capacitor has the capacitance of C1 = 10 pF when the distance of the two plates is d = 5 cm. A battery with the emf = 3 V is used to charge the capacitor. %3D %3D 1. How much charge can be put on the parallel-plate capacitor? (in the unit of pC) Q = Submit Answer Tries 0/2 Now, consider the following two cases separately: Case 1: if the emf stays connected, but the distance of the parallel plates is changed to di = 80 cm. 2. What is the new capacitance C1 and how much is the charge Qiin the capacitor? C1 = Q1 = µF Submit Answer Tries 0/2 Case 2: After the initial charging, the emf is removed. Therefore, the amount of charge you calculated from the question #1 remains in the capacitor. Now, again, the distance of the parallel plates is changed to di 3. What is the potential difference V1 across the capacitor? 80 cm.

A parallel-plate capacitor has the capacitance of C1 = 10 pF when the distance of the two plates is d = 5 cm. A battery with the emf = 3 V is used to charge the capacitor. %3D %3D 1. How much charge can be put on the parallel-plate capacitor? (in the unit of pC) Q = Submit Answer Tries 0/2 Now, consider the following two cases separately: Case 1: if the emf stays connected, but the distance of the parallel plates is changed to di = 80 cm. 2. What is the new capacitance C1 and how much is the charge Qiin the capacitor? C1 = Q1 = µF Submit Answer Tries 0/2 Case 2: After the initial charging, the emf is removed. Therefore, the amount of charge you calculated from the question #1 remains in the capacitor. Now, again, the distance of the parallel plates is changed to di 3. What is the potential difference V1 across the capacitor? 80 cm.

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)...

See similar textbooks

Similar questions

In (Figure 1), AV = 13 V. Figure + AV C₁ = 16 μF HH =C₂ = 40 μF =C3= 60 μF 1 of 1 Part A What is the charge on each capacitor? Enter your answers in microcoulombs separated by commas. Q₁, Q2, Q3 = Submit Part B 197| ΑΣΦ Submit Request Answer AV₁, AV₂, AV3 = Provide Feedback What is the potential difference across each capacitor in the figure? Enter your answers in volts separated by commas. 17 ΑΣΦ pas Request Answer ? By ? μC V
A parallel plate capacitor is designed as shown in Fig.The capacitor has a cross-sectional area of A = (1,2 × 1,2) cm2, the distance between the plates d= 2 mm, where the dielectric constant k1 = 4, k2 = 6, and k3 = 2.a. Describe the capacitor combination (series, parallel) formed byall three dielectric materials.b. Calculate the total capacitance of the capacitor?c. If the capacitor is connected with a potential difference V = 5 voltsthen determine the charge and energy stored in the capacitorthe?
Three capacitors are connected as shown, where C = 0.045 F. A. Input an expression for the equivalent capacitance between points a and b, in terms of C. B. What is the capacitance, in farads? C. If the capacitors are charged with a ΔV = 10 V source, how much energy will the circuit store, in joules?
What potential difference is needed to accelerate an electron from rest to a speed of 1.2x106 m/s? Express your answer to two significant figures and include the appropriate units. μÅ AV= Value Submit Request Answer Ć Units ?
Part a through c please In the figure (Figure 1), C1= C5= 8.8 μF and C2= C3= C4= 4.0 μF. The applied potential is Vab= 230 V. Part A What is the equivalent capacitance of the network between points a and b? Express your answer using two significant figures. Part B What is the charge of C1, C2, C3, C4, C5 Part C What is the potential differences of C1, C2, C3, C4, C5
B. Problem Solving. Solve the ff. problems by providing a solution. Round-off your answer to the nearest hundredths (with 2 decimal places). 1. A parallel-plate capacitor has square plates 3.5 cm on a side, separated by 0.50 mm. The capacitor is charged to 10 V, then disconnected from the charging power supply. (a) Calculate the capacitance of this capacitor. (b) What is the total charge on each plate?
find and solve for letter D only because I already have the answers for a-c, thank you!
A parallel plate capacitor in air is constructed with two 13 cm x 13 cm square conductors separated by 3 mm. a) Determine the value of the capacitance of this parallel plate capacitor. b) This capacitor is placed across a 12 V battery and allowed to fully charge. What is the value of this charge? To continue, please enter your answer in b) in units of nC. Round your answer to 1 decimal place.
In Lab 3, we measured the dielectric constant of glass using a parallel plate capacitor. Suppose that a piece of flat glass panel with a linear dielectric constant ɛ, = 2.5 is inserted between the plates of such a capacitor. The thickness of the glass is d = 5mm. The glass is in contact with both plates. One of the plates of the capacitor is kept at +3V, and the other plate is grounded. Treat the plates as infinitely large and thus the electric field is uniform between the plates. a) Calculate the electric field between the plates. b) Calculate the (uniform) polarization created in the glass. c) Calculate the surface bound charge density on the side of the glass that is in contact with the positive plate of the capacitor. d) Calculate the electric displacement between the plates. e) Calculate the free charge per unit area on the positive plate of the capacitor.
Suppose in the figure(Figure 1) that C1=C2=C3=40.9μFC1=C2=C3=40.9μF and C4=71.2μFC4=71.2μF. a.If the charge on C2C2 is Q2=20.7μCQ2=20.7μC, determine the charge on each of the other capacitors. Enter your answers numerically separated by commas. Determine the voltage across each capacitor. Enter your answers numerically separated by commas. Determine the voltage Vabacross the entire combination.
A.The plates of a capacitor are half filled with a dielectric of dielectric constant, k as shown in the figure. The area of each plate is A, the distance between the plates is d. terms of co, A, K, and d? (S What is the equivalent capacitance of this capacitor )
I have attached the formulas and values tahat we use for reference. Please include a detailed solution. Thank you!Question:A capacitor consists of two square metal plates, each measuring 8.65x10 ^-3 m on a side. In between, the plates are a sheet of paraffin measuring 2.00x10 ^-5m thick. A. What is the capacitance of this capacitor? (express your answer in pico(p))B. If the charge in one plate is 4.00x10^-9 C. What is the potential difference between the plates?