Gauge symmetry, left-right asymmetry and atom-antiatom systems: Coulomb's law as a universal molecular function

G. Van Hooydonk

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Gauge symmetry, left-right asymmetry and atom-antiatom systems: Coulomb's law as a universal molecular function

G. Van Hooydonk

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Abstract

We show that Coulomb's law is a universal molecular function. Charge inversion in one atom (handedness or chirality) generates a switch from atom-atom to atom-antiatom systems. this switch reduces the 10 term Hamiltonian for 4-particle systems to only 1 or 2 terms. This reduced parity adapted Hamiltonian accounts for observed PECs for atom-atom systems (results for 9 bonds are given). Hydrogen-antihydrogen reactions, feasible in the near future, will produce a normal H(2) molecule, which would solve the problem about the existence of anti-matter.

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G. Van Hooydonk. 2000-03-02. Gauge symmetry, left-right asymmetry and atom-antiatom systems: Coulomb's law as a universal molecular function. https://arxiv.org/abs/physics/0003005

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