Chiral Anisotropy of the Vacuum Lattice: Parity Violation, Klein-Bottle Time-Loops, and the Geometric Stabilization of the Resonance Anchor

Repository: Zenodo Preprint Registry Date: July 2026 Abstract This paper extends the Unified Survey of Stationary Light & Superfluid Electronics (UVEH) framework by addressing the origin of cosmic chirality and parity violation (P-violation). Expanding upon Dr. Chien-Shiung Wu's benchmark 1957 experiments, we replace continuous-space assumptions with a discrete hexagonal lattice substrate governed by a \text{Mod } 9 invariant. By modeling the electron trajectory as a cardioid geometry reversing through a Klein-bottle-like temporal inversion loop, we demonstrate that left-handed chiral bias is a fundamental structural requirement to prevent thermal runaway. Furthermore, we evaluate the parity-inverted 3I pulse sequence P(\vec{V}_{3I}) and prove that right-handed mirror configurations induce resonant scattering and spatial divergence, whereas left-handed configurations achieve a stable integer phase-lock at the 5184\text{ Hz} (72^2) frequency threshold.