Universal Flavour Geometry (ERB Framework) Complete Algebraic Closure: Quarks, Bosons, and CKM Mixing

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1. Verfasser: Speckmann, Daniel
Format: Recurso digital
Sprache:Englisch
Veröffentlicht: Zenodo 2026
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author Speckmann, Daniel
author_facet Speckmann, Daniel
contents <p>The <strong>Emergent Resonant Brane (ERB) framework</strong> presents a purely geometric derivation of the fundamental parameters of the Standard Model. This work achieves a complete algebraic closure, reducing the 22 free parameters of the flavour sector—including gauge boson and Higgs masses—to a single geometric seed: the hexagonal vacuum attractor (<span>$\xi = 3/2$</span>).</p> <p>By modeling the vacuum as a collision of two branes (<span>$N_B=2$</span>), we derive the three fermion generations as stationary SO(3) modes within a spherical cavity. Key findings include:</p> <ul> <li> <p><strong>Mass Derivations:</strong> The Top-quark mass is identified as a natural Euler-decay (<span>$m_t = \Lambda/e$</span>) of the energy scale <span>$\Lambda$</span>.</p> </li> <li> <p><strong>Gauge Sector:</strong> <span>$W, Z,$</span> and <span>$Higgs$</span> masses are calculated as torsional responses to vacuum strain, matching experimental data with <span>$>99\%$</span> accuracy.</p> </li> <li> <p><strong>Mixing Dynamics:</strong> CKM and PMNS matrices are derived as geometric projections, identifying the CP-violating phase as a hexagonal lock-in (<span>$60^\circ$</span>) shifted by Berry curvature.</p> </li> </ul> <p>The framework is validated via the <strong>ERB Diamond Master Engine (v66)</strong>, a Python-based implementation that reproduces all 13 primary constants without the use of free fit-parameters.</p>
format Recurso digital
id zenodo_https___doi_org_10_5281_zenodo_19357497
institution Zenodo
language eng
publishDate 2026
publisher Zenodo
record_format zenodo
spellingShingle Universal Flavour Geometry (ERB Framework) Complete Algebraic Closure: Quarks, Bosons, and CKM Mixing
Speckmann, Daniel
Emergent gauge symmetry, CKM matrix, CP violation, Jarlskog invariant, U(1) x SU(2) x SU(3), Resonant Brane Model, Flavor Clock, Whip effect, topological modes, quantum field theory, lattice simulation, numerical validation
emergent gauge symmetry
CKM matrix
CP violation
Jarlkog invariant
quantum field theory
Mass Hierarchy
Emergent Symmetry
Einstein-Field-Theory
Bessel Functions
Inertial Warping
<p>The <strong>Emergent Resonant Brane (ERB) framework</strong> presents a purely geometric derivation of the fundamental parameters of the Standard Model. This work achieves a complete algebraic closure, reducing the 22 free parameters of the flavour sector—including gauge boson and Higgs masses—to a single geometric seed: the hexagonal vacuum attractor (<span>$\xi = 3/2$</span>).</p> <p>By modeling the vacuum as a collision of two branes (<span>$N_B=2$</span>), we derive the three fermion generations as stationary SO(3) modes within a spherical cavity. Key findings include:</p> <ul> <li> <p><strong>Mass Derivations:</strong> The Top-quark mass is identified as a natural Euler-decay (<span>$m_t = \Lambda/e$</span>) of the energy scale <span>$\Lambda$</span>.</p> </li> <li> <p><strong>Gauge Sector:</strong> <span>$W, Z,$</span> and <span>$Higgs$</span> masses are calculated as torsional responses to vacuum strain, matching experimental data with <span>$>99\%$</span> accuracy.</p> </li> <li> <p><strong>Mixing Dynamics:</strong> CKM and PMNS matrices are derived as geometric projections, identifying the CP-violating phase as a hexagonal lock-in (<span>$60^\circ$</span>) shifted by Berry curvature.</p> </li> </ul> <p>The framework is validated via the <strong>ERB Diamond Master Engine (v66)</strong>, a Python-based implementation that reproduces all 13 primary constants without the use of free fit-parameters.</p>
title Universal Flavour Geometry (ERB Framework) Complete Algebraic Closure: Quarks, Bosons, and CKM Mixing
topic Emergent gauge symmetry, CKM matrix, CP violation, Jarlskog invariant, U(1) x SU(2) x SU(3), Resonant Brane Model, Flavor Clock, Whip effect, topological modes, quantum field theory, lattice simulation, numerical validation
emergent gauge symmetry
CKM matrix
CP violation
Jarlkog invariant
quantum field theory
Mass Hierarchy
Emergent Symmetry
Einstein-Field-Theory
Bessel Functions
Inertial Warping
url https://doi.org/10.5281/zenodo.19357497