Geometric Unification through Dynamic Mass Transduction: The TN Model and the Gravitonic Nature of |ψ| 2

We propose the Dynamic Mass Transduction framework, wherein the ontological status of mass is redefined from a static scalar parameter to a processual emergent equilibrium. By analyzing the flow dynamics of fractionalized spinon excitations in Kagome lattice quantum spin liquids, we demon- strate that local symmetry breaking in information flow couples directly to an analog gravitonic field. This dynamic coupling predicts a distinct, measurable anomaly in the thermal Hall transport at millikelvin temperatures, corresponding to the emission of spin-2 phononic gravitons. Furthermore, extrapolating this framework to gravitational collapse resolves the black hole singularity, replacing infinite density anomalies with a maximal entanglement memory matrix. This model bridges quan- tum information theory, condensed matter phenomena, and cosmology, offering a testable signature for the emergence of gravity from the internal dynamics of leptonic and quasi-particle systems.