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Title: Substrate Logistics: The Sub-Node Wave-Speed Footprint (WΩ): Deriving Vacuum Circulation Limits, the Photon-Grip Coupling Constant, the 1983 SI Meter 5D Bus Reconciliation (0.60755 m), and the 10.88 Nanogram Quantum Dispersion Hard Floor Author: Marco Lindenbeck Description: Standard quantum mechanics models spatial wavepacket dispersion (DQM = /2M) as a scale-free continuum, predicting that quantum dispersion decays continuously to zero as particle mass increases (M → ∞). This continuous assumption relies on space possessing infinite write bandwidth, neglecting the physical limits of discrete spatial execution. In this paper, I formulate the Sub-Node Wave-Speed Footprint (WΩ = 4.84444 × 10⁻²⁷ m²/s), a fundamental zero-parameter hardware constant linking spatial address deletion (KΩ = 1.11587 × 10⁻³⁷ m³/s²) to the sub-node pixel floor (λ̄ₚ = 2.10309 × 10⁻¹⁶ m) via the scale-invariant identity WΩ = √KΩ · λ̄ₚ. Key derivations and proofs include: Physical Origin of the Planck Length: The Sub-Node Quantum Circulation Limit (ΓΩ = 2π WΩ = 3.04385 × 10⁻²⁶ m²/s) proves the traditional Planck length (lP) is not an arbitrary spatial pixel, but the physical vortex core radius (rᵥₒᵣₜₑₓ = WΩ/c = 1.61593 × 10⁻³⁵ m) of vacuum vorticity. 1983 SI Meter Reconciliation: Introducing the Photon-Grip Coupling Constant (Areatick = WΩ tP α⁻¹ = 3.57904 × 10⁻⁶⁸ m²) proves its ratio against Earth's collective Compton floor derives an active 3D spatial execution window of 0.60755 m. Reconciles this scale with the $1983$ SI meter definition (1.00000 m), proving 1 m represents $100%$ capacity of the 5D pentagonal bus, within which active 3D spatial propagation occupies $3/5$ scaled by the 3D Volumetric Vertex Drag tax (80/3Cδ). Falsifiable Quantum Dispersion Floor: Formulates the unified quantum dispersion function D(M) = max(/2M, WΩ). Demonstrates $100%$ mathematical agreement with standard quantum mechanics in the sub-critical regime (M < 10.88 ng), while predicting an impermeable dispersion floor (Dfloor = WΩ) for super-critical test masses (M ≥ 10.88 ng) that provides a falsifiable target for next-generation levitated optomechanics.
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Marco Lindenbeck (2026) studied this question.
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