What question did this study set out to answer?

The research aims to unify standard model parameters through a holographic fiber theory framework.

May 26, 20260 citationsOpen Access

Unified Geometrization of Standard Model Parameters: A Holographic Fiber Theory (HFT) Framework

Key Points

The research aims to unify standard model parameters through a holographic fiber theory framework.
Developed a discrete trivalent cell complex with Hopf-bundle topology.
Introduced a chirality lock to fix the handedness of the substrate's framing.
Utilized derivations from topology to compute electroweak coupling constants and neutrino mass.
Forward-derived electroweak coupling constants: $ ext{sin}^2\theta_W = 30/128$ and $ ext{α}^{-1} = 137$.
Confirmed Majorana neutrino mass as $m_{\nu_1} \approx 1.8$ meV.
Predicted CMB temperature $T_{CMB} \approx 2.725$ K from the substrate's thermal floor.

Abstract

The Holographic Fiber Theory (HFT) substrate is a discrete trivalent cell complex with Hopf-bundle topology S³ S² (with S¹ fibers), with B₂-braided edges and B₃-braided vertices; its 5-DOF phase space Q = R^+ S² S¹ ₓ₀₍ S¹ ₇₎₏₅ emerges macroscopically as R³ space, spin/helicity, and energy. A single global Z₂ symmetry-breaking event -- the chirality lock -- fixes the handedness of every B₂ framing, converting the parity-symmetric substrate into the chirality-locked substrate. The locked mesh's topology forward-derives two electroweak coupling constants ²W = 30/128 and ^-1 = 137, tied by a closed-form relation ²W (Q) = 1/4 - 2/^-1 (Q) valid for 0 Q MZ. Based on these coupling constants, the same topology forward-derives the lightest Majorana neutrino mass m䃑 1. 8 meV as a sharp falsifiable target, and the CMB temperature T₂₌₁ 2. 725 K from the substrate's minimal-fluctuation thermal floor.

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