Condensed Matter

The Locus of Photonic Memory: Quantum Entanglement and Molecular Weight Shifts in Crystalline Silicon and Cellular Carbon-12 Structures

Authors: Ingre Zangirolami
Comments: 1 Page. File lingua italiano

This paper introduces a unified quantum model describing the capacity of matter to retain physical and directional information through the coherent absorption of light radiation, a phenomenon conceptualized as Photonic Memory. Bypassing the microscopic constraints of classical thermodynamics, we demonstrate that a constant directional light input induces a state of non-local quantum entanglement among adjacent atomic spins. This quantum phase coherence drastically minimizes local thermal entropy and microscopic phonon friction. Algebraic simulations applied to Silicon-28 (^{28}Si) crystalline lattices corroborate the energetic transition observed in recent experimental evidence bypassing Fourier's law. Extending this algorithm to living matter, the model predicts that the directional blueprint imprinted within the Carbon-12 (^{12}C) strands of cellular DNA manifests as a measurable negative shift (lightening) in effective atomic weight. These findings open unprecedented pathways for early-stage quantum diagnostics and the development of zero-entropy organic biological memory systems.
Category: Condensed Matter