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author deng, yuming
author_facet deng, yuming
contents <div> <div> <div> <div> <p>We present a unified geometric framework in which the QCD coupling, gluon self‐energy, and color confinement all follow from a single warp exponent</p> <div> <div> <div> <div> <p>We have shown that a single warp exponent Ξ = α−2 on a six‐dimensional pseudo–Kähler manifold serves as the universal geometric valve for QCD:</p> <p>It determines the 4D strong coupling gs,<br>Drives non‐perturbative dynamical mass M(p2),</p> <p>Produces an emergent Cornell potential,<br>Predicts glueball and hybrid spectra,<br>Can embed mainstream topological confinement models.</p> <p>This geometric unification of perturbative and non‐perturbative QCD phenomena offers a first‐principles path to understanding confinement—and suggests new experimental tests in lattice QCD, quarkonium spectroscopy, and gravitational‐wave physics.</p> </div> </div> </div> </div> </div> </div> </div> </div>
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id zenodo_https___doi_org_10_5281_zenodo_15377440
institution Zenodo
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publishDate 2025
publisher Zenodo
record_format zenodo
spellingShingle GLUON SELF‐ENERGY, COLOR CHARGE, AND GEOMETRIC CONFINEMENT IN SIX‐DIMENSIONAL PSEUDO–KÄHLER SPACETIME
deng, yuming
gluon self-energy
color charge confinement
quantum chromodynamics (QCD)
geometric confinement mechanism
non-Abelian gauge fields
strong interaction geometry
SU(3)_c gauge symmetry
color flux tubes
infrared QCD behavior
asymptotic freedom
QCD vacuum structure
gluon propagator deformation
running of strong coupling
gluon condensate
Dyson–Schwinger equations
confinement from geometry
holographic QCD models
six-dimensional confinement
pseudo-Kähler geometry in QCD
color field topology
topological charge and QCD
quark–gluon plasma phase
mass gap in QCD
effective gluon mass
ghost-gluon vertex
BRST symmetry in QCD
nonperturbative QCD
lattice confinement indicators
gluon polarization tensor
gluon loop corrections
<div> <div> <div> <div> <p>We present a unified geometric framework in which the QCD coupling, gluon self‐energy, and color confinement all follow from a single warp exponent</p> <div> <div> <div> <div> <p>We have shown that a single warp exponent Ξ = α−2 on a six‐dimensional pseudo–Kähler manifold serves as the universal geometric valve for QCD:</p> <p>It determines the 4D strong coupling gs,<br>Drives non‐perturbative dynamical mass M(p2),</p> <p>Produces an emergent Cornell potential,<br>Predicts glueball and hybrid spectra,<br>Can embed mainstream topological confinement models.</p> <p>This geometric unification of perturbative and non‐perturbative QCD phenomena offers a first‐principles path to understanding confinement—and suggests new experimental tests in lattice QCD, quarkonium spectroscopy, and gravitational‐wave physics.</p> </div> </div> </div> </div> </div> </div> </div> </div>
title GLUON SELF‐ENERGY, COLOR CHARGE, AND GEOMETRIC CONFINEMENT IN SIX‐DIMENSIONAL PSEUDO–KÄHLER SPACETIME
topic gluon self-energy
color charge confinement
quantum chromodynamics (QCD)
geometric confinement mechanism
non-Abelian gauge fields
strong interaction geometry
SU(3)_c gauge symmetry
color flux tubes
infrared QCD behavior
asymptotic freedom
QCD vacuum structure
gluon propagator deformation
running of strong coupling
gluon condensate
Dyson–Schwinger equations
confinement from geometry
holographic QCD models
six-dimensional confinement
pseudo-Kähler geometry in QCD
color field topology
topological charge and QCD
quark–gluon plasma phase
mass gap in QCD
effective gluon mass
ghost-gluon vertex
BRST symmetry in QCD
nonperturbative QCD
lattice confinement indicators
gluon polarization tensor
gluon loop corrections
url https://doi.org/10.5281/zenodo.15377440