NON-LINEAR TOPOLOGICAL EMERGENCE: Evidence of Hadronic Transmutation and Fractal Octet Resonance (N=1136) in TIGM Solitons

This experimental report details the computational results of dynamic stress tests ("The Gauntlet Simulations") applied to the TIGM Electron Model (a 5D Klein Bottle topological soliton with a fundamental winding number of \alpha^{-1} \approx 137). The study aimed to verify the structural stability of the soliton under conditions of extreme entropy, simulating high-energy particle collisions. Utilizing a Phase Invariance Analysis via the Hilbert Transform, we observed a critical emergent phenomenon: under noise levels exceeding 1.5\sigma, the topological charge of the system did not dissipate. Instead, it underwent a spontaneous fractal multiplication, converging on a new stable Winding Number of N' = 1136. We interpret this "1136 Anomaly" as a geometric phase transition corresponding to an Octet Resonance (1136 \approx 8 \times 137). This finding suggests a purely topological mechanism for Hadronic Transmutation, proposing that heavy composite particles are not fundamental entities, but rather highly excited fractal states of the fundamental leptonic geometry.

Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2025-12-09
DOI
https://doi.org/10.5281/zenodo.17864675
Primary Topic
Statistical Mechanics and Entropy
Type
article
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article

NON-LINEAR TOPOLOGICAL EMERGENCE: Evidence of Hadronic Transmutation and Fractal Octet Resonance (N=1136) in TIGM Solitons

Zenodo (CERN European Organization for Nuclear Research)
Statistical Mechanics and Entropy
article

NON-LINEAR TOPOLOGICAL EMERGENCE: Evidence of Hadronic Transmutation and Fractal Octet Resonance (N=1136) in TIGM Solitons

article en

Abstract

This experimental report details the computational results of dynamic stress tests ("The Gauntlet Simulations") applied to the TIGM Electron Model (a 5D Klein Bottle topological soliton with a fundamental winding number of \alpha^{-1} \approx 137). The study aimed to verify the structural stability of the soliton under conditions of extreme entropy, simulating high-energy particle collisions. Utilizing a Phase Invariance Analysis via the Hilbert Transform, we observed a critical emergent phenomenon: under noise levels exceeding 1.5\sigma, the topological charge of the system did not dissipate. Instead, it underwent a spontaneous fractal multiplication, converging on a new stable Winding Number of N' = 1136. We interpret this "1136 Anomaly" as a geometric phase transition corresponding to an Octet Resonance (1136 \approx 8 \times 137). This finding suggests a purely topological mechanism for Hadronic Transmutation, proposing that heavy composite particles are not fundamental entities, but rather highly excited fractal states of the fundamental leptonic geometry.

Zenodo (CERN European Organization for Nuclear Research)
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