Foliation, topology and nucleon charge profiles in hypersphere soliton model
Soon-Tae Hong

TL;DR
This paper investigates the geometric and topological structures of nucleons within the hypersphere soliton model, revealing how charge distributions and topological features relate to the hypersphere's geometry and predicting fractional charges and volumes.
Contribution
It introduces a novel geometric and topological analysis of nucleon charge profiles in the hypersphere soliton model, including the role of foliation and the topological structure of nucleons.
Findings
Proton and neutron charges are confined within the hypersphere, with neutron charges separated inside and outside the core.
Nucleons are modeled as topological structures of two Hopf-linked Möbius strip type twist circles in S^3.
The volume ratio of hypersphere to solid sphere is a geometrical invariant related to hyper-compactness.
Abstract
In the hypersphere soliton model (HSM), we study the geometrical inner structures and the ensuing charge distributions of the nucleons by exploiting the aspect of the HSM where the hypersphere soliton is described by an extended object possessing the parameter which corresponds to the radial distance from the center of to the foliation leaves of the hypersphere soliton. To do this, we investigate the foliation and topology related with geometry on a hypersphere described by . Exploiting the so-called scanning algorithm we study geometrical relations between spherical shell foliation leave on a northern hemi-hypersphere and that on a flat equatorial solid sphere which contains the center of . We then elucidate the physical meaning of in of radius by showing that plays the…
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Taxonomy
TopicsQuantum Chromodynamics and Particle Interactions · Black Holes and Theoretical Physics · Particle physics theoretical and experimental studies
