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Tachyons, Lamb shifts and superluminal chaos
Author(s) -
Roman Tomaschitz
Publication year - 2000
Publication title -
the european physical journal b
Language(s) - English
Resource type - Journals
SCImago Journal Rank - 0.451
H-Index - 130
eISSN - 1434-6036
pISSN - 1434-6028
DOI - 10.1007/s100510070130
Subject(s) - physics , tachyon , superluminal motion , quantum electrodynamics , quantum mechanics , classical mechanics
:   An elementary account on the origins of cosmic chaos in an open and multiply connected universe is given; there is a finite region in the open 3-space in which the world-lines of galaxies are chaotic, and the mixing taking place in this chaotic nucleus of the universe provides a mechanism to create equidistribution. The galaxy background defines a distinguished frame of reference and a unique cosmic time order; in this context superluminal signal transfer is studied. Tachyons are described by a real Proca field with negative mass square, coupled to a current of subluminal matter. Estimates on tachyon mixing in the geometric optics limit are derived. The potential of a static point source in this field theory is a damped periodic function. We treat this tachyon potential as a perturbation of the Coulomb potential, and study its effects on energy levels in hydrogenic systems. By comparing the induced level shifts to high-precision Lamb shift measurements and QED calculations, we suggest a tachyon mass of 2.1 keV/c2 and estimate the tachyonic coupling strength to subluminal matter. The impact of the tachyon field on ground state hyperfine transitions in hydrogen and muonium is investigated. Bounds on atomic transition rates effected by tachyon radiation as well as estimates on the spectral energy density of a possible cosmic tachyon background radiation are derived.

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