Chapter 23: Problem 25
A proton, initially at rest, is accelerated through a potential difference of \(500 .\) V. What is its final velocity?
Chapter 23: Problem 25
A proton, initially at rest, is accelerated through a potential difference of \(500 .\) V. What is its final velocity?
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Get started for freeAn electron moves away from a proton. Describe how the potential it encounters changes. Describe how its potential energy is changing.
An infinite plane of charge has a uniform charge distribution of \(+4.00
\mathrm{nC} / \mathrm{m}^{2}\) and is located in the \(y z\) -plane at \(x=0 .
A+11.0 \mathrm{nC}\) fixed point charge is located at \(x=+2.00 \mathrm{~m}\)
a) Find the electric potential \(V(x)\) on the \(x\) -axis from \(0
The electric potential energy of a continuous charge distribution can be found in a way similar to that used for systems of point charges in Section \(23.6,\) by breaking the distribution up into suitable pieces. Find the electric potential energy of an arbitrary spherically symmetrical charge distribution, \(\rho(r) .\) Do not assume that \(\rho(r)\) represents a point charge, that it is constant, that it is piecewise-constant, or that it does or does not end at any finite radius, \(r\). Your expression must cover all possibilities. Your expression may include an integral or integrals that cannot be evaluated without knowing the specific form of \(\rho(r) .\) (Hint: A spherical pearl is built up of thin layers of nacre added one by one.)
A ring with charge \(Q\) and radius \(R\) is in the \(y z\) -plane and centered on the origin. What is the electric potential a distance \(x\) above the center of the ring? Derive the electric field from this relationship.
A classroom Van de Graaff generator accumulates a charge of \(1.00 \cdot 10^{-6} \mathrm{C}\) on its spherical conductor, which has a radius of \(10.0 \mathrm{~cm}\) and stands on an insulating column. Neglecting the effects of the generator base or any other objects or fields, find the potential at the surface of the sphere. Assume that the potential is zero at infinity.
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