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This research addresses baryon asymmetry by employing a non-relativistic approach using a hexagonal close-packed space crystal framework.

June 5, 2026Open Access

Dynamic Phase Resonances in Hexagonal Close-Packed Media: Material Asymmetry via Discrete Log-Modular Drifts (Part VIII)

Key Points

This research addresses baryon asymmetry by employing a non-relativistic approach using a hexagonal close-packed space crystal framework.
Utilizes Z/256Z finite ring for arithmetic operations
Proves deterministic drift in structural evolution of material vacuum
Examines Collatz mapping for log-modular invariance
Demonstrates directional log-modular drift (λ ≈ −0.287) favoring volume-charge contraction
Establishes structural prohibition of antimatter stability
Finds cosmic asymmetry as an inherent hardware-level property within spatial processing architecture

Abstract

This paper delivers a non-relativistic resolution to the problem of baryon asymmetry, replacing spontaneous CP-violation with the deterministic arithmetic of the Hexagonal Close-Packed (3HCP) space crystal. Operating over the finite ring of registers Z/256Z, the author proves that the structural evolution of the material vacuum is bound to a directional log-modular invariant drift (λ ≈ −0.287) rooted in the discrete Collatz (3n + 1) mapping. This drift inherently favors localized volume-charge contraction (Donor-matter) over expansion, structurally prohibiting antimatter stability. The model establishes cosmic asymmetry as a fundamental hardware-level property of the spatial processing architecture. Creative Commons Attribution Non Commercial No Derivatives 4.0 International

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