Rotational Anisotropy of Galaxies in JWST Observations: A Chronovibrational Hypothesis

This work introduces a novel theoretical hypothesis to explain the rotational anisotropy observed in galaxies from the JWST JADES survey. Based on data showing a statistically significant and redshift-dependent excess of clockwise-rotating galaxies, the author proposes the chronovibrational model, in which physical time is described as a damped quantum harmonic field.

According to this model, the early universe—characterized by minimal damping and high harmonic instability—could have undergone episodes of temporal decoherence, leading to persistent metric imprints. These localized anisotropies may have influenced the angular momentum of forming galaxies, leaving behind observable directional signatures in their present-day kinematics.

Combining analytical formalism, simulated galaxy data (IllustrisTNG), and real astronomical observations, this study offers an alternative yet testable framework. While speculative, the chronovibrational hypothesis opens the door to interpreting unresolved cosmological anomalies through the lens of temporal quantum dynamics.

Version 3  — This release introduces major updates and clarifications.

• Reformulated Section 3 with a full derivation of the electromagnetic coupling from the modified Maxwell equations, leading to the temporal-source wave equation and a self-consistent mechanism for impulse generation.

• Added a complete Operational Appendix describing detection criteria, discrimination tests, and pseudocode for identifying chronovibrational pulses in real data.

• Expanded discussion on environmental detectability, explaining why Antarctic ice uniquely preserves temporal coherence and suggesting orbital and lunar detection scenarios.

• Included an energetic and biological consistency analysis showing that the inferred energy densities (~10⁻⁷ J/m³) are far below any threshold for molecular disruption.

• Harmonized notation and normalization with the companion works on Entanglement and Hubble Constant Tension.

Overall, v3 consolidates the chronovibrational interpretation of the ANITA anomalies into a quantitative and testable theoretical framework.