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Theory of atomic spectral emission intensity

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Abstract

The theoretical derivation of a new spectral line intensity formula for atomic radiative emission is presented. The theory is based on first principles of quantum physics, electrodynamics, and statistical physics. Quantum rules lead to revision of the conventional principle of local thermal equilibrium of matter and radiation. Study of electrodynamics suggests absence of spectral emission from fractions of the numbers of atoms and ions in a plasma due to radiative inhibition caused by electromagnetic force fields. Statistical probability methods are extended by the statement: A macroscopic physical system develops in the most probable of all conceivable ways consistent with the constraining conditions for the system. The crucial role of statistical physics in transforming quantum logic into common sense logic is stressed. The theory is strongly supported by experimental evidence.

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Yngström, S. Theory of atomic spectral emission intensity. Int J Theor Phys 33, 1479–1501 (1994). https://doi.org/10.1007/BF00670691

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Keywords

  • Force Field
  • Spectral Line
  • Emission Intensity
  • Line Intensity
  • Electromagnetic Force