Holographic Dilution and the Emergence of Gravity: Deriving the Planck Mass from the Z3 ⊗ Q3 Error-Correcting Vacuum

Audit note. The numerical match M_P \approx 1.221 \times 10^{19} GeV at 0.015\% requires the discrete Feshbach invalid-subspace rank reduction K_{\text{eff}} = 205 = 256 - 48 - 3, where the ``-3 structurally decoupled virtual states'' is asserted but not derived. §5 of this paper conjectures the reduction without exhibiting the matrix trace; §7 defines the Brillouin-zone computational target that would constitute the actual derivation, but that computation has not been executed. Consequently: (i) the 0.015\% numerical agreement with CODATA is a posteriori consistency, not a priori derivation; (ii) the K_{\text{eff}} = 205 value is a phenomenologically motivated parameter chosen to reproduce M_P, not a result computed from first principles on the substrate; (iii) per §16.3 search-space classification, the result sits at class-2 (tight match with unbounded formula freedom on the prefactor) pending the The extreme weakness of gravity compared to the strong nuclear force—a hierarchy of roughly 1040—represents a defining crisis in modern theoretical physics. In continuous Quantum Field Theory (QFT), attempts to compute the macroscopic gravitational con- stant G from vacuum fluctuations generate catastrophic, unrenormalizable ultraviolet (UV) infinities. In this paper, we demonstrate that modelling the quantum vacuum as a discrete, UV-finite Z3 ⊗ Q3 topological tensor network structurally resolves the Hierarchy Problem. Anchoring the spatial lattice to the hadronic chiral scale (ΛQCD ≈ 332 MeV), we establish a bare lattice Planck mass of exactly ΛQCD. Macroscopic gravity is treated as an emergent Eg transverse metric shear generated by colour-confinement tension, diluting holographically across the discrete nodes spanning the global causal patch. To preserve a static G and avoid the phenomenologically ruled-out Dirac Large Number Hypothesis (LNH), we bound this patch with the static, asymptotic de Sitter horizon (RdS = 3/Λ). By replacing continuous Euclidean loop integrals with a discrete Feshbach resolvent trace over the lattice’s invalid error-correction subspace, we derive a parameter-free macroscopic Planck mass of MP ≈ 1.221 × 1019 GeV, matching the empirical CODATA value (1.2209 × 1019 GeV) to within∼ 0.015%. We present the exact discrete Brillouin-zone matrix algebra required to computationally falsify this geometric alignment v2.0 (2026-06-12): an in-PDF dated status/erratum note has been added reflecting the June 2026 canon audit (DRIFT/ANCHOR ledger); see the paper's status note for the specific corrections, supersessions, or upgrades.

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Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-06-12
DOI
https://doi.org/10.5281/zenodo.20672993
Primary Topic
Quantum Chromodynamics and Particle Interactions
Type
preprint
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preprint

Holographic Dilution and the Emergence of Gravity: Deriving the Planck Mass from the Z3 ⊗ Q3 Error-Correcting Vacuum

David Elliman
Zenodo (CERN European Organization for Nuclear Research)
Quantum Chromodynamics and Particle Interactions
preprint

Holographic Dilution and the Emergence of Gravity: Deriving the Planck Mass from the Z3 ⊗ Q3 Error-Correcting Vacuum

David Elliman
preprint en

Abstract

Audit note. The numerical match M_P \approx 1.221 \times 10^{19} GeV at 0.015\% requires the discrete Feshbach invalid-subspace rank reduction K_{\text{eff}} = 205 = 256 - 48 - 3, where the ``-3 structurally decoupled virtual states'' is asserted but not derived. §5 of this paper conjectures the reduction without exhibiting the matrix trace; §7 defines the Brillouin-zone computational target that would constitute the actual derivation, but that computation has not been executed. Consequently: (i) the 0.015\% numerical agreement with CODATA is a posteriori consistency, not a priori derivation; (ii) the K_{\text{eff}} = 205 value is a phenomenologically motivated parameter chosen to reproduce M_P, not a result computed from first principles on the substrate; (iii) per §16.3 search-space classification, the result sits at class-2 (tight match with unbounded formula freedom on the prefactor) pending the The extreme weakness of gravity compared to the strong nuclear force—a hierarchy of roughly 1040—represents a defining crisis in modern theoretical physics. In continuous Quantum Field Theory (QFT), attempts to compute the macroscopic gravitational con- stant G from vacuum fluctuations generate catastrophic, unrenormalizable ultraviolet (UV) infinities. In this paper, we demonstrate that modelling the quantum vacuum as a discrete, UV-finite Z3 ⊗ Q3 topological tensor network structurally resolves the Hierarchy Problem. Anchoring the spatial lattice to the hadronic chiral scale (ΛQCD ≈ 332 MeV), we establish a bare lattice Planck mass of exactly ΛQCD. Macroscopic gravity is treated as an emergent Eg transverse metric shear generated by colour-confinement tension, diluting holographically across the discrete nodes spanning the global causal patch. To preserve a static G and avoid the phenomenologically ruled-out Dirac Large Number Hypothesis (LNH), we bound this patch with the static, asymptotic de Sitter horizon (RdS = 3/Λ). By replacing continuous Euclidean loop integrals with a discrete Feshbach resolvent trace over the lattice’s invalid error-correction subspace, we derive a parameter-free macroscopic Planck mass of MP ≈ 1.221 × 1019 GeV, matching the empirical CODATA value (1.2209 × 1019 GeV) to within∼ 0.015%. We present the exact discrete Brillouin-zone matrix algebra required to computationally falsify this geometric alignment v2.0 (2026-06-12): an in-PDF dated status/erratum note has been added reflecting the June 2026 canon audit (DRIFT/ANCHOR ledger); see the paper's status note for the specific corrections, supersessions, or upgrades.

Zenodo (CERN European Organization for Nuclear Research)
Catholic University of Mozambique (MZ)
Peace, Justice and strong institutions
Quantum Chromodynamics and Particle Interactions
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