Classical Electrodynamics |
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Page 463
13.2 13.3 13.4 (a) Takingh(o) = 12Zevin the quantum-mechanicalenergy-loss
formula, calculate the rate of energy loss (in Mevlcm) in air at NTP, aluminum,
copper, lead for a proton and a mu meson, each with kinetic energies of 10, 100,
1000 ...
13.2 13.3 13.4 (a) Takingh(o) = 12Zevin the quantum-mechanicalenergy-loss
formula, calculate the rate of energy loss (in Mevlcm) in air at NTP, aluminum,
copper, lead for a proton and a mu meson, each with kinetic energies of 10, 100,
1000 ...
Page 575
Keeping only lowest-order terms in B and making the long-wavelength
approximation, calculate the nonvanishing multipole moments, the angular
distribution of radiation, and the total power radiated. The uniform charge density
of Problem ...
Keeping only lowest-order terms in B and making the long-wavelength
approximation, calculate the nonvanishing multipole moments, the angular
distribution of radiation, and the total power radiated. The uniform charge density
of Problem ...
Page 576
Calculate the ratio of the z component of the electromagnetic angular momentum
to the energy in the field. ... to perform some integrations by parts, and to use the
differential equation satisfied by E., in order to simplify your calculations.
Calculate the ratio of the z component of the electromagnetic angular momentum
to the energy in the field. ... to perform some integrations by parts, and to use the
differential equation satisfied by E., in order to simplify your calculations.
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Contents
Introduction to Electrostatics | 1 |
References and suggested reading | 23 |
Multipoles Electrostatics of Macroscopic Media | 98 |
Copyright | |
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