(b) A student has three capacitors. Two of the capacitors have a capacitance of 4.0 µF and onehas a capacitance of 8.0 µF.Draw labelled circuit diagrams, one in each case, to show how the three capacitors may beconnected to give a total capacitance of:(i) 1.6uF(ii) 10µF. (c) A capacitor C of capacitance 47 uF is connected across the output terminals of a bridgerectifier,as shown in Fig. 5.1.Cbridgerectifier|47 µFFig. 5.1The variation with time tof the potential difference Vacross the resistor R is shown in Fig. 5.2.108.VIV6.42-t2time tFig. 5.2Use data from Fig. 5.2 to determine the energy transfer from the capacitor C to resistor Rbetween time t, and time t,.energy =J

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(b) A student has three capacitors. Two of the capacitors have a capacitance of 4.0 µF and one has a capacitance of 8.0 µF. Draw labelled circuit diagrams, one in each case, to show how the three capacitors may be connected to give a total capacitance of: (i) 1.6uF (ii) 10µF.

(b) A student has three capacitors. Two of the capacitors have a capacitance of 4.0 µF and one has a capacitance of 8.0 µF. Draw labelled circuit diagrams, one in each case, to show how the three capacitors may be connected to give a total capacitance of: (i) 1.6uF (ii) 10µF.

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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Concept explainers

Combination of Capacitors

The connection of capacitors can be established in a circuit in two ways.

Question

(b) A student has three capacitors. Two of the capacitors have a capacitance of 4.0 µF and one
has a capacitance of 8.0 µF.
Draw labelled circuit diagrams, one in each case, to show how the three capacitors may be
connected to give a total capacitance of:
(i) 1.6uF
(ii) 10µF.

(c) A capacitor C of capacitance 47 uF is connected across the output terminals of a bridge
rectifier,as shown in Fig. 5.1.
C
bridge
rectifier
|47 µF
Fig. 5.1
The variation with time tof the potential difference Vacross the resistor R is shown in Fig. 5.2.
10
8.
VIV
6.
4
2-
t2
time t
Fig. 5.2
Use data from Fig. 5.2 to determine the energy transfer from the capacitor C to resistor R
between time t, and time t,.
energy =
J

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