Author:
Lazarev, Sergiu Vasili
Category:
Research Papers
Sub-Category:
Quantum Theory / Particle Physics
Date Published:
May 4, 2026
Keywords:
neutrinos; NMSI; Riemann Oscillatory Network; Lazarev-Cairo Transform; Quantum Fisher Information; Holevo bound; MSW effect; LCDM falsification; Information Trap Theorem; Wasserstein transport
Abstract:
This paper proposes a comprehensive reformulation of neutrino phenomenology within the framework of New Subquantum Informational Mechanics (NMSI). Neutrinos are reinterpreted not as fundamental particles but as weakly anchored informational modes of the Riemann Oscillatory Network (RON) – a subquantum informational substrate indexed by the non-trivial zeros of the Riemann zeta function. This perspective simultaneously resolves three fundamental anomalies: why exactly three neutrino families exist, why oscillation parameters vary with the physical environment beyond MSW theory, and why relic Big Bang neutrinos contradict standard cosmology by a factor of 250,000. We introduce: the Lazarev-Cairo Transform for decomposing RON signals, two identifiability theorems guaranteeing unique recoverability of physical parameters, and the Information Trap Theorem – a proof of impossibility demonstrating that the standard cosmological model (LCDM) is internally inconsistent with respect to the neutrino informational flux. The theorem is reinforced by explicit treatment of realistic decoherence models, showing that no known decoherence mechanism saves LCDM from the information trap. Six experimentally testable predictions with specific detectors and explicit falsification criteria are formulated for the period 2025-2035.
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