Classical field theory: electromagnetism and gravitation
The author uses a unique approach which emphasizes the field theoretic aspects of gravitation and the strong analogies between gravitation and the other areas that are studied in physics. The theory-centered text begins with the simplest experimental facts then proceeds to the corresponding differential equations, theoretical constructs such as energy, momentum and stress and several applications. End-of-chapter problems provide students with an opportunity to test their understanding, serve as an introduction to and a review of material not included in the book and can be used to develop examples, extensions and generalizations of the material presented.
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for Electrostatic Configurations
Steady Currents and Magnetostatics
TimeDependent Fields and Currents
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analytic angle angular momentum antisymmetric applied field approximation atoms average boundary conditions calculate called charge and current charge density charge distribution charge q charged particle circuit coefficient components conductor conserved consider coordinate system covariant cross section current density defined derivatives determined dielectric constant electric dipole electric field electromagnetic field electron electrostatic energy equations of motion expand finite flux force formula frequency gauge given gives gravitational field Green's function independent integral interaction invariant Lagrangian linear Lorentz Lorentz transformation magnetic field Maxwell's equations multipole normal Note optical theorem orthogonal oscillator photon point charge point particle polarizability polarization positive Poynting Poynting vector Problem propagating quantum radiation radius result rotation satisfy scalar field scattering amplitude solution solve space sphere spherical harmonics stress tensor symmetric term theorem theory transverse unit volume upper half-plane vanishes vector potential velocity wave function wave number wave packet zero