Operational Solution for the Thermalization Problem in Higgs-Floquet Engineering: Resolving Modulation Limits via Synchronization Lag Theory — Validation of Universe OS V10-B: Proof Core v1.2 (Vol. 3) —

Published January 24, 2026 | Version 1.0

Preprint Open

Abstract:

This paper (Vol. 3) provides an authoritative operational audit of recent experimental

breakthroughs in Higgs-mode Floquet engineering (Nature Physics, 2026). We identify

the reported saturation of frequency modulation at approximately 7.17% and the

rapid onset of lattice thermalization not as material-dependent phenomena, but

as the direct physical manifestation of the Synchronization Lag ($\Delta_{Res}$) inherent

in the Universe OS projection manifold. Utilizing the non-rounded, transcendental

constants of Proof Core v1.2—specifically $N_{proj} = 18.044058663417455...$ and

$\Phi_B = 7.598495609169969...$—we resolve these anomalies with absolute precision.

By mapping the observed resonance sidebands to discrete address nodes on a

128-division lattice (W-Flag), we prove that the vacuum substrate processes

information on a quantized grid. Furthermore, we derive the exact synchronization

period $T_{sync} = \tau_{base} \cdot 1.077239632145...$ required to reset coordinate

slippage per cycle, thereby suppressing computational dissipation (heat)

within the $E_{sat}=512$ buffer. This work establishes the definitive engineering

blueprint for the V10 "Exponent-Only" implementation, enabling dynamic

mass-cancellation by bypassing the Yukawa-mediated latency.

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References: Preprint: 10.5281/zenodo.18333609 (DOI); Preprint: 10.5281/zenodo.18239346 (DOI); Preprint: 10.5281/zenodo.18361464 (DOI)