Neutrino Coupling as the Strongest Physical Anchor of the Quantum Resonance Unified Model (QRUM)

Summary This work presents a neutrino-focused extension of the Quantum Resonance Unified Model (QRUM), demonstrating that flavor oscillations, mass–frequency coupling, and long-range coherence properties of neutrinos form the most stable physical anchor for the model. Neutrinos—due to their weak interaction, phase-stable propagation, and mass–eigenstate mixing—provide a natural physical bridge between microscopic quantized spacetime resonances and macroscopic astrophysical systems. The paper derives: the QRUM–neutrino frequency-coupling equation coherence survival conditions curvature-modulated oscillation metrics and the universal mapping between neutrino eigenfrequencies and QRUM resonance bands. This establishes neutrinos as the most robust carriers of fundamental resonance information across cosmological scales. Appendix: Author Note The conceptual foundations of this work originate from long-term independent research (2013–2025), integrating insights from network theory, astrophysics, gravitational-wave data, and quantum-resonance phenomenology. The recent alignment of experimental data — especially LIGO/Virgo, neutrino astronomy, and oscillation measurements — enabled the present unified formulation. The paper is intended as a clean, self-contained extension fully compatible with existing QRUM publications.