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(I) How much charge flows from each terminal of a 12.0-V battery when it is connected to a \({\bf{5}}\;{\bf{.00 - \mu F}}\) capacitor?

Short Answer

Expert verified

The charge flows from each terminalis\(6.00 \times {10^{ - 5}}\;{\rm{C}}\).

Step by step solution

01

Understanding the charge on a capacitor

The capacitor is a charge storage device that consists of two parallel plates.

When a capacitor is connected to a battery, charge flows from the battery to each plate. There is some positive charge on one plate and the same amount of negative charge on the other plate.

The amount of charge flows from the battery is given as:

\(Q = CV\)

Here, Q is the charge, C is the capacitance and V is the voltage of the battery.

02

Given Data

The voltage is,\(V = 12.0\;{\rm{V}}\)

The capacitance is, \(C = 5.00\;\mu {\rm{F}}\)

03

Evaluation of the charge flows from each terminal

The relation to finding chargeis given by,

\(Q = CV\)

Substitute the values in the above expression.

\(\begin{aligned}Q &= \left( {5.00\;\mu {\rm{F}} \times \frac{{{{10}^{ - 6}}\;{\rm{F}}}}{{1\;\mu {\rm{F}}}}} \right)\left( {12.0\;{\rm{V}}} \right)\\Q &= 6.00 \times {10^{ - 5}}\;{\rm{C}}\end{aligned}\)

Thus, the charge flows from each terminal is \(6.00 \times {10^{ - 5}}\;{\rm{C}}\).

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Most popular questions from this chapter

In the dynamic random access memory (DRAM) of a computer, each memory cell contains a capacitor for charge storage. Each of these cells represents a single binary bit value of โ€œ1โ€ when its 35-fF capacitor \(\left( {{\bf{1}}\;{\bf{fF = 1}}{{\bf{0}}^{{\bf{ - 15}}}}\;{\bf{F}}} \right)\) is charged at 1.5 V, or โ€œ0โ€ when uncharged at 0 V.

(a) When fully charged, how many excess electrons are on a cell capacitorโ€™s negative plate?

(b) After charge has been placed on a cell capacitorโ€™s plate, it slowly โ€œleaksโ€ off at a rate of about \({\bf{0}}{\bf{.30}}\;{\bf{fC/s}}\). How long does it take for the potential difference across this capacitor to decrease by 2.0% from its fully charged value? (Because of this leakage effect, the charge on a DRAM capacitor is โ€œrefreshedโ€ many times per second.) Note: A DRAM cell is shown in Fig. 21โ€“29.

(I) A 0.20-F capacitor is desired. What area must the plates have if they are to be separated by a 3.2-mm air gap?

How does the energy stored in a capacitor change when a dielectric is inserted if (a) the capacitor is isolated so Q does not change; (b) the capacitor remains connected to a battery so V does not change? Explain.

(II) An electric field of \({\bf{8}}{\bf{.50 \times 1}}{{\bf{0}}^{\bf{5}}}\;{\bf{V/m}}\) is desired between two parallel plates, each of area \({\bf{45}}{\bf{.0}}\;{\bf{c}}{{\bf{m}}^{\bf{2}}}\) and separated by 2.45 mm of air. What charge must be on each plate?

Can a particle ever move from a region of low electric potential to one of high potential and yet have its electric potential energy decrease? Explain.

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