Difference between revisions of "Spinning Charged Ring Model of Elementary Particles"

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==Abstract==
 
==Abstract==
  
The spinning charged ring model that yields correct electron characteristics is proposed here for the proton, positron and antiproton. The ring with electrostatic charge <em>e</em> spins with tangential velocity <em>c,</em> giving the charged elementary particles constant and identical values of magnetic flux. For all four particles, the approrpiate radii <em>R</em> and half-thickness <em>r</em> of the ring can be chosen to yield the observed spins, magnetic moments, sizes and masses.[[Category:Scientific Paper]]
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The spinning charged ring model that yields correct electron characteristics is proposed here for the proton, positron and antiproton. The ring with electrostatic charge <em>e</em> spins with tangential velocity <em>c,</em> giving the charged elementary particles constant and identical values of magnetic flux. For all four particles, the approrpiate radii <em>R</em> and half-thickness <em>r</em> of the ring can be chosen to yield the observed spins, magnetic moments, sizes and masses.
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[[Category:Scientific Paper|spinning charged ring model elementary particles]]
  
 
[[Category:New Energy]]
 
[[Category:New Energy]]

Revision as of 11:06, 1 January 2017

Scientific Paper
Title Spinning Charged Ring Model of Elementary Particles
Author(s) David L Bergman
Keywords spinning charged ring model, elementary particles, magnetic moments
Published 1991
Journal Galilean Electrodynamics
Volume 2
Number 2
Pages 30-32

Abstract

The spinning charged ring model that yields correct electron characteristics is proposed here for the proton, positron and antiproton. The ring with electrostatic charge e spins with tangential velocity c, giving the charged elementary particles constant and identical values of magnetic flux. For all four particles, the approrpiate radii R and half-thickness r of the ring can be chosen to yield the observed spins, magnetic moments, sizes and masses.