Thermal History of the S3 Field Microtexture
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2025
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| _version_ | 1866901201560272896 |
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| author | Boudjerada, Mustafa |
| author_facet | Boudjerada, Mustafa |
| contents | <div dir="ltr"> <p>This paper proposes a cosmological thermal history model for the microscopic "ripple" sector of the S³-Field Framework. It provides the physical mechanism for the transient gravitational enhancement ("Turbo" gear) required to explain the anomalous abundance of massive galaxies at high redshift.</p> <p>The study establishes the thermodynamic conditions under which the fundamental field deviates from General Relativity:</p> <ol> <li> <p><strong>The Mass-Gap Coincidence:</strong> The paper identifies that the photon temperature at Cosmic Dawn (<span>$z \approx 20$</span>) corresponds naturally to the theory's intrinsic ripple mass scale (<span>$m_{\text{rip}} \approx 1$</span> meV).</p> </li> <li> <p><strong>Critical Crossover Mechanism:</strong> We hypothesize that the universe cooling through this mass threshold (<span>$T \sim m_{\text{rip}}$</span>) triggers a susceptibility divergence in the scalar microtexture. This results in a transient dip in vacuum stiffness (<span>$Z_s < 1$</span>), temporarily boosting the effective gravitational strength.</p> </li> <li> <p><strong>Strict Neff Compliance (Split-Equilibrium):</strong> To strictly satisfy Planck 2018 radiation constraints, the model identifies a "Split-Equilibrium" regime. The scalar sector maintains Kinetic Equilibrium (tracking photon temperature) to trigger the transition, but remains in Chemical Non-Equilibrium (dilute number density, <span>$n_{\text{rip}} \ll n_{\gamma}$</span>). This ensures that while the temperature triggers the physics, the energy density contribution remains negligible, preventing any violation of the effective number of neutrino species (<span>$N_{\text{eff}}$</span>).</p> </li> </ol> <p><strong>Key Prediction:</strong> The theory predicts that the "Impossibly Early Galaxies" observed by JWST are a direct signature of the dark sector undergoing a non-relativistic phase transition at <span>$T \approx 1$</span> meV.</p> </div> <p></p> |
| format | Recurso digital |
| id | zenodo_https___doi_org_10_5281_zenodo_18070142 |
| institution | Zenodo |
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| publishDate | 2025 |
| publisher | Zenodo |
| record_format | zenodo |
| spellingShingle | Thermal History of the S3 Field Microtexture Boudjerada, Mustafa Cosmic Dawn Thermal History Critical Phase Transition Dark Sector Physics Neff Constraints JWST Anomalies Split Equilibrium <div dir="ltr"> <p>This paper proposes a cosmological thermal history model for the microscopic "ripple" sector of the S³-Field Framework. It provides the physical mechanism for the transient gravitational enhancement ("Turbo" gear) required to explain the anomalous abundance of massive galaxies at high redshift.</p> <p>The study establishes the thermodynamic conditions under which the fundamental field deviates from General Relativity:</p> <ol> <li> <p><strong>The Mass-Gap Coincidence:</strong> The paper identifies that the photon temperature at Cosmic Dawn (<span>$z \approx 20$</span>) corresponds naturally to the theory's intrinsic ripple mass scale (<span>$m_{\text{rip}} \approx 1$</span> meV).</p> </li> <li> <p><strong>Critical Crossover Mechanism:</strong> We hypothesize that the universe cooling through this mass threshold (<span>$T \sim m_{\text{rip}}$</span>) triggers a susceptibility divergence in the scalar microtexture. This results in a transient dip in vacuum stiffness (<span>$Z_s < 1$</span>), temporarily boosting the effective gravitational strength.</p> </li> <li> <p><strong>Strict Neff Compliance (Split-Equilibrium):</strong> To strictly satisfy Planck 2018 radiation constraints, the model identifies a "Split-Equilibrium" regime. The scalar sector maintains Kinetic Equilibrium (tracking photon temperature) to trigger the transition, but remains in Chemical Non-Equilibrium (dilute number density, <span>$n_{\text{rip}} \ll n_{\gamma}$</span>). This ensures that while the temperature triggers the physics, the energy density contribution remains negligible, preventing any violation of the effective number of neutrino species (<span>$N_{\text{eff}}$</span>).</p> </li> </ol> <p><strong>Key Prediction:</strong> The theory predicts that the "Impossibly Early Galaxies" observed by JWST are a direct signature of the dark sector undergoing a non-relativistic phase transition at <span>$T \approx 1$</span> meV.</p> </div> <p></p> |
| title | Thermal History of the S3 Field Microtexture |
| topic | Cosmic Dawn Thermal History Critical Phase Transition Dark Sector Physics Neff Constraints JWST Anomalies Split Equilibrium |
| url | https://doi.org/10.5281/zenodo.18070142 |