For nearly a century, the decay of elementary particles has been modeled via Fermi's Golden Rule and the Wigner-Weisskopf approximation as an environmentally isolated, probabilistic quantum tunneling event. Within the continuous framework of the Standard Model, the transition matrix element that characterizes the Weak interaction is treated as an immutable intrinsic property of the particle, subject only to relativistic kinematic corrections. We propose here that this assumption of absolute environmental isolation—while a successful low-energy approximation—ultimately obscures a deeper thermodynamic reality. By modeling the vacuum at the Planck scale as a discrete, dynamic relational spatial lattice governed by Symbiotic Infodynamic Equilibrium (SIE), we introduce a thermodynamic dual-mechanism for quantum state truncation. We define the Infodynamic Shear Tensor (Upsilon), a unified metric to quantify macroscopic electromagnetic gradients, Weyl tidal curvature, and kinematic acceleration as sources of vacuum phase-space impedance. By coupling this tensor to the Standard Model Lagrangian via a dimension-6 effective operator, we demonstrate how this impedance may generate a continuous, non-adiabatic complex shift in the fermion propagator pole. This dynamic shift triggers localized structural heat accumulation isomorphic to the Unruh effect and mechanically ruptures the quantum state. We further analyze the Renormalization Group (RG) flow of this operator and indicate its dominance at macroscopic infrared scales. Through application of these geometric constraints to fundamental particle metrology, the resulting framework models the neutron mass anomaly, establishes a topological basis for the Higgs VEV, and suggests a geometric foundation for neutrino oscillations without reliance on phenomenological free parameters. Applying the Mass-Energy-Information equivalence principle, we offer a resolution to the 10¹20 Vacuum Catastrophe by modeling Dark Energy as a thermodynamic Quintessence variable governed by Cohen-Kaplan-Nelson and Bousso covariant holographic bounds. Finally, the framework proposes a breakdown of the magic momentum condition in the Fermilab Muon g-2 storage ring and suggests the 2. 51 x 10^-9 anomalous magnetic moment discrepancy may be a systematic kinematic metric artifact, yielding potentially falsifiable scaling laws for modern metrology, astrophysical photon dispersion, and early-epoch galactic formation.
Cody Hudock (Wed,) studied this question.