Chapter 22: Problem 5
Must the potential be zero at any point where the electric field is zero? Explain.
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Chapter 22: Problem 5
Must the potential be zero at any point where the electric field is zero? Explain.
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The potential on the axis of a uniformly charged disk at \(5.0 \mathrm{cm}\) from the disk center is \(150 \mathrm{V}\); the potential \(10 \mathrm{cm}\) from the disk center is 110 V. Find the disk radius and its total charge.
A sphere of radius \(R\) carries negative charge of magnitude \(Q,\) distributed in a spherically symmetric way. Find an expression for the escape speed for a proton at the sphere's surface-that is, the speed that would enable the proton to escape to arbitrarily large distances starting at the sphere's surface.
"Cherry picker" trucks for working on power lines often carry electrocution hazard signs. Explain how this hazard arises and why it might be more of a danger to someone on the ground than to a worker on the truck.
A thin spherical shell has radius \(R\) and total charge \(Q\) distributed uniformly over its surface. Find the potential at its center.
An open-ended cylinder of radius \(a\) and length \(2 a\) carries charge \(q\) spread uniformly over its surface. Find the potential at the center of the cylinder. (Hint: Treat the cylinder as a stack of charged rings, and integrate.)
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