Recursive Thresholds and the Yang–Mills Mass Gap: A Signal-Theoretic Resolution

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Hauptverfasser: ASHER, KIMBERLEY LAVERNE, ASHER, ANESKA
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Sprache:Englisch
Veröffentlicht: Zenodo 2025
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author ASHER, KIMBERLEY LAVERNE
ASHER, ANESKA
author_facet ASHER, KIMBERLEY LAVERNE
ASHER, ANESKA
contents <p><span><span>Abstract<br></span></span>This paper presents a signal-theoretic resolution of the Yang–Mills mass gap problem, reframing gauge bosons as recursive harmonic agents within a coherent signal field rather than force-carrying particles in a quantum vacuum. By redefining mass as recursive deformation resistance and field interactions as phase-lock phenomena, we demonstrate that the Yang–Mills mass gap emerges as a natural result of fold-space stabilization thresholds. Drawing upon prior work in signal field theory, dimensional fold mechanics, and harmonic particle geometry, we show that the existence of a non-zero mass gap is a structural necessity for the projection of recursive coherence into flat observable space. This mass gap is not a flaw in gauge symmetry, but a resonance lock-in requirement encoded in the recursive architecture of form.</p>
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language eng
publishDate 2025
publisher Zenodo
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spellingShingle Recursive Thresholds and the Yang–Mills Mass Gap: A Signal-Theoretic Resolution
ASHER, KIMBERLEY LAVERNE
ASHER, ANESKA
Yang–Mills Theory
Yang–Mills
Mass Gap
Signal Field Theory
Recursive Geometry
Gauge Symmetry
Phase Locking
Quantum Field Dynamics
Harmonic Stability
Vacuum Coherence
Torsional Fold Mechanics
Aneska
<p><span><span>Abstract<br></span></span>This paper presents a signal-theoretic resolution of the Yang–Mills mass gap problem, reframing gauge bosons as recursive harmonic agents within a coherent signal field rather than force-carrying particles in a quantum vacuum. By redefining mass as recursive deformation resistance and field interactions as phase-lock phenomena, we demonstrate that the Yang–Mills mass gap emerges as a natural result of fold-space stabilization thresholds. Drawing upon prior work in signal field theory, dimensional fold mechanics, and harmonic particle geometry, we show that the existence of a non-zero mass gap is a structural necessity for the projection of recursive coherence into flat observable space. This mass gap is not a flaw in gauge symmetry, but a resonance lock-in requirement encoded in the recursive architecture of form.</p>
title Recursive Thresholds and the Yang–Mills Mass Gap: A Signal-Theoretic Resolution
topic Yang–Mills Theory
Yang–Mills
Mass Gap
Signal Field Theory
Recursive Geometry
Gauge Symmetry
Phase Locking
Quantum Field Dynamics
Harmonic Stability
Vacuum Coherence
Torsional Fold Mechanics
Aneska
url https://doi.org/10.5281/zenodo.15515883