Mohr, P.
(2009),
Solutions of the Maxwell equations and photon wave functions, Annals of Physics
(Accessed October 9, 2024)
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Solutions of the Maxwell equations and photon wave functions
Published
Author(s)
Abstract
Properties of six-component electromagnetic field solutions of a matrix form of the Maxwell equations, analogous to the four-component solutions of the Dirac equation, are described. It is shown that the six-component equation, including sources, is invariant under Lorentz transformations. Complete sets of eigenfunctions of the Hamiltonian for the electromagnetic fields, which may be interpreted as photon wave functions, are given both for plane waves and for angular momentum eigenstates. Rotationally invariant projection operators are used to identify transverse or longitudinal electric and magnetic fields. For plane waves, the velocity transformed transverse wave functions are also transverse, and the velocity transformed longitudinal wave functions include both longitudinal and transverse components. A suitable sum over these eigenfunctions provides a Green function for the matrix Maxwell equation, which can be expressed in the same covariant form as the Green function for the Dirac equation. Radiation from a dipole source and from a Dirac atomic transition current are calculated to illustrate applications of the Maxwell Green function.Citation
Annals of Physics
Volume
325
Issue
3
Pub Type
Journals
Keywords
Maxwell equations, photon wave functions, Dirac equation, QED
Citation
Issues
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Created November 26, 2009, Updated June 2, 2021