TITLE:
Solar-Terrestrial Neutrino Phase Regularization via NMSI Operators: The PNON Mechanism, the Neutrino Labyrinth, and Experimental Protocols on IceCube Data
AUTHORS:
Sergiu Vasili Lazarev
KEYWORDS:
PNON, Neutrino Phase Regularization, Aurora Borealis, Be-7 862 KeV, NMSI Operators, Neutrino Labyrinth, IceCube, MSW, Riemann Oscillatory Network
JOURNAL NAME:
Journal of High Energy Physics, Gravitation and Cosmology,
Vol.12 No.3,
July
30,
2026
ABSTRACT: This paper, the eighth in a series on neutrino physics within New Subquantum Informational Mechanics (NMSI), is organized in three complementary parts. Part A develops the Planetary Nuclear Oscillatory Node (PNON) mechanism: the hypothesis that Earth’s core functions as a phase regularization resonator for the collective neutrino informational flux. We present the complete informational transport equation with all seven NMSI operators (DZO, oscillatory forcing, intermittent dissipation, exponential stabilization, fractal temporal scaling, PON coupling, and PNON). We rigorously demonstrate the formal distinction between PNON and the standard MSW effect: PNON regularizes collective phase coherence while MSW modifies mass eigenvalues—the two mechanisms are orthogonal and coexist. We identify a novel connection between aurora borealis and the Be-7 neutrino line at 862 keV as complementary channels of a unified solar-terrestrial informational flux. Part B presents the Neutrino Labyrinth: a demonstration that orthodox neutrino physics, followed rigorously to its logical consequences, leads inevitably to the necessity of a RON-type structure. The convergence argument establishes conditional necessity rather than logical uniqueness: RON is necessary given the constraints and the absence of known alternatives. The trap is not built by NMSI—it is built by physics itself. Part C (File 2) presents experimental protocols run on 1,134,450 IceCube events and 102 HESE events with zero free parameters. The central result: deep upgoing neutrinos traversing Earth’s core exhibit a DZO-induced phase coherence excess ΔR = 2.43 × 10−8, within the NMSI prediction range [10−8, 2 × 10−8]. The measured value exceeds the lower bound at approximately 2.4σ, and the null hypothesis ΔR = 0 is excluded at 4.0σ. The effect vanishes completely for downgoing events (ΔR −13), providing a five-order-of-magnitude contrast. Twelve independent experimental criteria are confirmed across two companion papers, falling into three independent evidence classes: structural, temporal, and energetic. None of the 12 confirmed criteria rely on fitted parameters. Every constant (β = 1.25 × 10−3 eV2, L* = 24, the 20 Riemann zeros, the DZO template) is fixed from NMSI structure prior to any contact with IceCube data. This constitutes a genuinely predictive test, not a post hoc optimization.