Electromagnetic Fields: Sources and Media"Here is a textbook that develops the classical theory of electromagnetic fields from a contemporary point of view-with applications to the physics of condensed matter and plasmas. It more thoroughly relates electricity and magnetism to media, integrating solid state physics, plasma physics, and optics into the electromagnetic fields course. Portis's balance of theory and application, along with his effective use of relativity, has produced a text that is constructive as well as complete. He emphasizes the experimental investigations of Coulomb and Faraday together with the special theory of relativity, including applications at each stage of development to topics in the physics of condensed matter and plasmas. Each section is followed by exercises that are designed to reinforce the topics discussed. Chapter problems emphasize the connection with the present material to previous chapters. Besides his balance of theory and application, reviewers have also praised Portis for the logical organization, consistency in notation and presentation, and the inclusion of condensed matter to topics. Ideal for those with a background in mathematics and general physics, Electromagnetic Fields can be used in courses that also recognize solid state physics, optics, plasma physics, and modern physics."- Publisher |
Contents
Action at a Distance | 2 |
Coulombs Law | 3 |
Electric Field and Potential | 4 |
Copyright | |
402 other sections not shown
Common terms and phrases
a₂ Ampère's law angle angular momentum atom axis Bext carriers charge density charge distribution charge q component conductor constant contour coordinates curl current density dielectric discussion displacement divergence dV₁ E₁ electric and magnetic electric dipole electric field electromagnetic electromotive force electron ellipsoid energy equation Exercises external charge external currents flux force frequency function Gauss's law given gradient induced integral interaction Lorentz Lorentz transformation macroscopic magnetic charge magnetic field magnetic moment medium metre molecule motion moving charge oscillator P₁ permeability permittivity Phys plane plasma polarizability polarization density position Poynting vector primed frame propagation q₁ quadrupole r₁ radiation relation rotation scattering Section Show shown in Figure solenoid sphere of radius spherical Substituting superconducting surface tensor test charge theorem transformation transverse uniformly charged V₁ vector potential volume wave write written zero Απ Απερ μο