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Matter-antimatter asymmetry and chiral behavior in perturbed atom H

Recently, we showed that that band as well as line spectra, reveal a left-right symmetry in 4- and 2-fermion systems. We now show how a mass-conjugation explains the difference between atom- and antiatom-states in a stable 2-unit charge Coulomb system. For the electron-proton system in natural H, th...

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Autor principal: Van Hooydonk, G
Lenguaje:eng
Publicado: 2005
Materias:
Acceso en línea:http://cds.cern.ch/record/828009
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author Van Hooydonk, G
author_facet Van Hooydonk, G
author_sort Van Hooydonk, G
collection CERN
description Recently, we showed that that band as well as line spectra, reveal a left-right symmetry in 4- and 2-fermion systems. We now show how a mass-conjugation explains the difference between atom- and antiatom-states in a stable 2-unit charge Coulomb system. For the electron-proton system in natural H, this difference (an anomaly) between states belonging to the hydrogen (matter) and the antihydrogen (antimatter) anti-world is governed by number 2m(e)/m(H) = 0.0011. This is verified with the H-line spectrum. Classical physics can describe the parity effects for matter-antimatter asymmetry. An internal mass-conjugation (internal algebra) extends and generalizes Dirac's fermion-antifermion symmetry and defies Einstein's Special Theory of Relativity (STR).
id cern-828009
institution Organización Europea para la Investigación Nuclear
language eng
publishDate 2005
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spelling cern-8280092021-02-12T23:22:35Zhttp://cds.cern.ch/record/828009engVan Hooydonk, GMatter-antimatter asymmetry and chiral behavior in perturbed atom HOther Fields of PhysicsRecently, we showed that that band as well as line spectra, reveal a left-right symmetry in 4- and 2-fermion systems. We now show how a mass-conjugation explains the difference between atom- and antiatom-states in a stable 2-unit charge Coulomb system. For the electron-proton system in natural H, this difference (an anomaly) between states belonging to the hydrogen (matter) and the antihydrogen (antimatter) anti-world is governed by number 2m(e)/m(H) = 0.0011. This is verified with the H-line spectrum. Classical physics can describe the parity effects for matter-antimatter asymmetry. An internal mass-conjugation (internal algebra) extends and generalizes Dirac's fermion-antifermion symmetry and defies Einstein's Special Theory of Relativity (STR).physics/0503133CPS-PHYSCHEM-2002-09-008oai:cds.cern.ch:8280092005-03-16
spellingShingle Other Fields of Physics
Van Hooydonk, G
Matter-antimatter asymmetry and chiral behavior in perturbed atom H
title Matter-antimatter asymmetry and chiral behavior in perturbed atom H
title_full Matter-antimatter asymmetry and chiral behavior in perturbed atom H
title_fullStr Matter-antimatter asymmetry and chiral behavior in perturbed atom H
title_full_unstemmed Matter-antimatter asymmetry and chiral behavior in perturbed atom H
title_short Matter-antimatter asymmetry and chiral behavior in perturbed atom H
title_sort matter-antimatter asymmetry and chiral behavior in perturbed atom h
topic Other Fields of Physics
url http://cds.cern.ch/record/828009
work_keys_str_mv AT vanhooydonkg matterantimatterasymmetryandchiralbehaviorinperturbedatomh