A Chronovibrational Interpretation of Entanglement

This thesis proposes a chronovibrational interpretation of quantum entanglement, introducing the concept of a global temporal field psi(t) and a critical function fcrit(t) that governs coherence. In this framework, entanglement is not understood as a mysterious non-local transmission of information, but rather as the effect of a minimal perturbation in the temporal phase shared by two or more quantum systems.

The analysis begins by defining the energy threshold required to activate the critical function, showing that the pump photon in spontaneous parametric down-conversion provides precisely the minimal energy necessary for establishing an entangled state. The model quantitatively links this threshold to a small variation in temporal damping (Delta Lambda ~ 2.6 s^-1), far below the values associated with macroscopic decoherence phenomena. This highlights the extreme fragility of entanglement as a near-threshold effect in the chronovibrational field.

A comparison with large-scale coherence collapse events, such as the anomalous signals observed by ANITA, demonstrates the scalability of the same theoretical framework: while entanglement requires only a minute perturbation of coherence, ANITA-like events correspond to a complete harmonic collapse of the temporal field, with significant energy release.

Although still conceptual and lacking direct experimental verification, the chronovibrational approach offers a possible physical mechanism connecting entanglement, time coherence, and information. Its value lies in providing a complementary interpretation that can, in principle, be developed into testable predictions and a more rigorous mathematical structure.

Version 2

This new version offers a deeper and more structured formulation of the chronovibrational interpretation of quantum entanglement. The text now develops the idea that the correlation between two entangled particles arises from a synchronized modulation of the temporal field ψ(t), rather than from any exchange of information through space. The carrier wave that generates the entangled pair acts as a phase-alignment mechanism, imposing a common evolution of the critical function f₍crit₎(t) on both subsystems.

The paper also introduces the concepts of latency energy and activation time, linking the energy of the pump photon in optical down-conversion to the minimum perturbation required to activate temporal coherence. A quantitative model for the variation ΔΛ of temporal damping is derived and illustrated with realistic optical parameters, showing that a very small modulation of coherence is sufficient to trigger entanglement.

Finally, the appendix now aligns the energetic formalism with the ANITA and Hubble Constant Tension papers, creating a unified framework that connects quantum-scale synchronization and macroscopic chronovibrational phenomena. This version represents a complete and internally coherent formulation of the chronovibrational view of entanglement.