Relativistic electromagnetism in rotating media

This work concerns relativistic electromagnetism in a cylindrical Frenet-Serret frame. The tensor formalism of Maxwell's equations and electromagnetic fields in a vacuum is first developed in terms of cylindrical coordinates and afterwards applied to a rotating frame using the relativistic Trocheris-Takeno description of rotations. The metric ds2 = gm n dxm dxn of this frame is then obtained to find the determinant g of the gm n matrix intervening in the relativistic Maxwell's equations, where the Greek indices take on the values 1,2,3,4. The propagation of harmonic cylindrical waves in rotating media is analyzed and it is shown that these waves can propagate only in some regions of spacetime. Geometrical optics and its paraxial approximation in rotating frames are also investigated in terms of a scalar field. Finally, the last section is devoted to electromagnetism in a rotating material medium with the use of covariant constitutive relations.

Relativistic electromagnetism in rotating media

This work concerns relativistic electromagnetism in a cylindrical Frenet-Serret frame. The tensor formalism of Maxwell's equations and electromagnetic fields in a vacuum is first developed in terms of cylindrical coordinates and afterwards applied to a rotating frame using the relativistic Trocheris-Takeno description of rotations. The metric ds2 = gm n dxm dxn of this frame is then obtained to find the determinant g of the gm n matrix intervening in the relativistic Maxwell's equations, where the Greek indices take on the values 1,2,3,4. The propagation of harmonic cylindrical waves in rotating media is analyzed and it is shown that these waves can propagate only in some regions of spacetime. Geometrical optics and its paraxial approximation in rotating frames are also investigated in terms of a scalar field. Finally, the last section is devoted to electromagnetism in a rotating material medium with the use of covariant constitutive relations.

___

  • I. J. Uretski. “Vacuum electrodynamics in a merry go round.” American Journal of Physics, Vol. 26, pp. 431-435, φ. Gr φ n. “Relativistic description of a rotating disk.” American Journal of Physics, Vol. 43, pp. 869- 874, 1975.
  • G. Pellegrini, A. Swift. “Maxwell’s equations in a rotating medium. Is there a problem?”American Journal of Physics, Vol. 63, pp. 694-705, 1995.
  • C.T. Ridgely. “Applying relativistic electrodynamics to a rotating material medium.” American Journal of Physics, Vol. 66, pp. 114-121, 1998.
  • P. Hillion. “The Wilsons’ experiment.” Apeiron, pp. 1-8, 1999.
  • P. Hillion. “Maxwell’s equations and accelerated frames.” Physical Review E, Vol. 57, pp. 7239-7243,1988.
  • J.D. Jackson. Classical Electrodynamics. New York: Wiley, 1975.
  • S.D. Jones. Acoustic and Electromagnetic Waves. New York: Oxford University Press, 1989.
  • M.G. Trocheris. “Electrodynamics in a rotating frame of reference.” Philosophical Magazine, Vol. 7, pp. 1143-1155,
  • H. Takeno. “On relativistic theory of rotating disk.” Progress in Theoretical Physics, Vol. 7, pp. 367-371, 1952.
  • E.J. Post. Formal Structure of Electromagnetism. Amsterdam, New York: North Holland Publishing Co., 1962.
  • J.L. Synge. Relativity: The General Theory. Amsterdam, New York: North Holland Publishing Co., 1960.
  • C. M φ ller. The Theory of Relativity. New York: Oxford University Press, 1952.
  • V. Fock. The Theory of Space-Time and Gravitation. London: Pergamon, 1959.
  • P. Hillion. “Scattering by a rotating circular conducting cylinder I.” Report in Mathematical Physics, Vol. 11, pp. 233, 1998.
  • P. Hillion. “Scattering by a rotating circular conducting cylinder II.” Report in Mathematical Physics, Vol. 11, pp. 244, 1998.
  • A.S. Eddington. The Mathematical Theory of Relativity. Cambridge: University.Press, 1951.
  • M. Abramowitz and I.A. Stegun. Handbook of Mathematical Functions. New York: Dover Press, 1968.
  • D. Marcuse. Light Transmission Optics. New York: Van Nostrand, 1972.
  • S.C. Tiwari.”Rotating light, OAM paradox and relativistic complex Şeld.” Journal of Optics A, Vol. 11, 065701,
  • A.Y. Bekshaev, M.S. Suskin, M.V. Vasnetsov. “Angular momentum of rotating light beam.” Optics Communica- tions, Vol. 249, pp. 367-378, 2005.
  • J. Weber. General Relativity and Gravitational Waves. New York: Interscience, 1961.