Quantum Lattice Model: Geometric Routing and Gravitational Throttling

This paper develops the exterior gravitational routing sector of the Quantum Lattice Model (QLM) by deriving gravitational throttling from geometric suppression of radial phase-action transport. Starting from the QLM primitive set {ℏ, ℓP, tP}, with c = ℓP/tP and mP = ℏ tP/ℓP², the analysis introduces a dimensionless scalar routing availability Y, defined as the fraction of vacuum routing capacity available to phase-action transport. For a spherically symmetric mass M, the mass-energy content defines a dimensionless closure inventory NM = M/mP. Radial phase-action transport is supported by transverse spherical shells of area 4πr². Because each shell has two independent transverse routing directions, the local radial routing decrement takes the form dY = -2 NM (ℓP/r²) dr. With the boundary condition Y(∞) = 1, this integrates to the exterior routing field Y(r) = 1 - 2(M/mP)(ℓP/r). The zero of this routing availability defines the Schwarzschild critical radius rs = 2(M/mP)ℓP, which is equivalent to the standard form rs = 2GM/c² when G = ℓP⁵/(tP³ℏ). Thus the Newtonian gravitational constant appears as a derived lattice coupling rather than as an independent primitive. The gravitational redshift factor is then interpreted as a routing throttle, Zg(r) = Y(r)^(-1/2) = (1 - rs/r)^(-1/2), so that local phase-action evolution remains proper-time invariant while outward transport relative to infinity is asymptotically suppressed. The finite interior endpoint of collapse is not rederived in this paper. It is supplied by the separate density-cap construction developed in Quantum Lattice Model: Planck Energy Density Cap and Minimal Saturated-Core Completion, which provides the local bound u(r) ≤ uP and the corresponding saturated-core radius. The present work therefore focuses specifically on the exterior Schwarzschild-compatible routing derivation. No new primitives, free parameters, or modifications of the exterior Schwarzschild form are introduced. Within QLM, gravity is interpreted as asymptotic throttling of radial phase-action transport produced by geometric suppression of exterior routing availability.

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Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-06-16
DOI
https://doi.org/10.5281/zenodo.20724605
Primary Topic
Quantum many-body systems
Type
preprint
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preprint

Quantum Lattice Model: Geometric Routing and Gravitational Throttling

Quinton R. D. Tharp
Zenodo (CERN European Organization for Nuclear Research)
Quantum many-body systems
preprint

Quantum Lattice Model: Geometric Routing and Gravitational Throttling

Quinton R. D. Tharp
preprint en

Abstract

This paper develops the exterior gravitational routing sector of the Quantum Lattice Model (QLM) by deriving gravitational throttling from geometric suppression of radial phase-action transport. Starting from the QLM primitive set {ℏ, ℓP, tP}, with c = ℓP/tP and mP = ℏ tP/ℓP², the analysis introduces a dimensionless scalar routing availability Y, defined as the fraction of vacuum routing capacity available to phase-action transport. For a spherically symmetric mass M, the mass-energy content defines a dimensionless closure inventory NM = M/mP. Radial phase-action transport is supported by transverse spherical shells of area 4πr². Because each shell has two independent transverse routing directions, the local radial routing decrement takes the form dY = -2 NM (ℓP/r²) dr. With the boundary condition Y(∞) = 1, this integrates to the exterior routing field Y(r) = 1 - 2(M/mP)(ℓP/r). The zero of this routing availability defines the Schwarzschild critical radius rs = 2(M/mP)ℓP, which is equivalent to the standard form rs = 2GM/c² when G = ℓP⁵/(tP³ℏ). Thus the Newtonian gravitational constant appears as a derived lattice coupling rather than as an independent primitive. The gravitational redshift factor is then interpreted as a routing throttle, Zg(r) = Y(r)^(-1/2) = (1 - rs/r)^(-1/2), so that local phase-action evolution remains proper-time invariant while outward transport relative to infinity is asymptotically suppressed. The finite interior endpoint of collapse is not rederived in this paper. It is supplied by the separate density-cap construction developed in Quantum Lattice Model: Planck Energy Density Cap and Minimal Saturated-Core Completion, which provides the local bound u(r) ≤ uP and the corresponding saturated-core radius. The present work therefore focuses specifically on the exterior Schwarzschild-compatible routing derivation. No new primitives, free parameters, or modifications of the exterior Schwarzschild form are introduced. Within QLM, gravity is interpreted as asymptotic throttling of radial phase-action transport produced by geometric suppression of exterior routing availability.

Zenodo (CERN European Organization for Nuclear Research)
Quantum Devices (United States) (US)
Affordable and clean energy
Quantum many-body systems
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