Chapter 19: Q61PE (page 698)
Find the total capacitance of the combination of capacitors shown below
Short Answer
The required solution is .
Chapter 19: Q61PE (page 698)
Find the total capacitance of the combination of capacitors shown below
The required solution is .
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Get started for freeSketch the equipotential lines surrounding the two conducting plates shown in Figure \({\rm{19}}{\rm{.30}}\), given the top plate is positive and the bottom plate has an equal amount of negative charge. Be certain to indicate the distribution of charge on the plates. Is the field strongest where the plates are closest? Why should it be?
If the voltage between two points is zero, can a test charge be moved between them with zero net work being done? Can this necessarily be done without exerting a force? Explain.
How far from a \(1.00{\rm{ }}\mu C\) point charge will the potential be \(100{\rm{ }}V\)? At what distance will it be \(2.00 \times {10^2}{\rm{ }}V\)?
Membrane walls of living cells have surprisingly large electric fields across them due to separation of ions. (Membranes are discussed in some detail in Nerve Conduction—Electrocardiograms.) What is the voltage across an \(8.00{\rm{ }}nm\)–thick membrane if the electric field strength across it is \(5.50{\rm{ }}MV/m\)? You may assume a uniform electric field.
Sketch the equipotential lines in the vicinity of the negatively charged conductor in Figure 19.29. How will these equipotentials look a long distance from the object?
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