Anisotropic Topological Friction and Discrete 2×3 Lattice Structure in the Macroscopic Vacuum: Empirical Evidence from 7244 Deep Space Objects (IT³ Framework)

We present empirical evidence for anisotropic topological friction and discrete 2×3 lattice structure in the macroscopic vacuum through the analysis of 7244 deep space objects from the MPCORB database. Using the extended C-PHAM v2.2 (Cosmological PHAM) descent operator derived from Connes' noncommutative spectral action, we demonstrate that longitudinal relaxation requires significantly more iterations than transverse and vertical relaxation.

Key Discoveries:

• Strict 3D Anisotropy: Strong statistical anisotropy with longitudinal mean 2.15 steps versus transverse 1.12 and vertical 1.05 steps (ANOVA F=9911.91, p<10^-6).

• Topological Frustration: Strict topological embedding of eccentricity-driven frustration at aphelion, where the topological frustration factor is derived ab initio from the spectral zeta-function residue.

• Phase Space Quantization: Exact geometric discretization of orbital inclination into 3 vertical layers, and a discrete 2×3 lattice structure in the transverse-vertical phase space.

• Planet Nine Alternative: These results explain the observed radial standing wave structure of the Kuiper Belt and ETNO clustering without requiring a hypothetical massive planetary perturber.

We conclude with blind, falsifiable predictions for 50 ETNOs awaiting discovery by the LSST/Rubin Observatory.

Included Files:

This upload includes the full manuscript (PDF/LaTeX) and the complete reference implementation of the C-PHAM v2.2 Python scripts for independent reproducibility and lattice visualization.