Exact Blind Predictions of Unknown Neutrino Parameters via 5D Complex Matrix M Boundary Decoupling: Absolute Mass Scale, Normal Hierarchy Lock, and Exact Leptonic CP Phase Angle

Title: Exact Blind Predictions of Unknown Neutrino Parameters via 5D Complex Matrix M Boundary Decoupling: Absolute Mass Scale, Normal Hierarchy Lock, and Exact Leptonic CP Phase Angle Author: Joon Sik Choi (Bella Vista Lux Mea / Institute for Unified Discrete Matrix Infrastructure, Sydney, Australia) Abstract:The determination of the absolute neutrino mass scale (Sum m_nu), the mass ordering hierarchy (Normal vs. Inverted), and the leptonic Dirac CP-violating phase angle (delta_CP) remains the foremost unresolved frontier in modern high-energy physics. While international facilities such as DUNE, Hyper-Kamiokande, JUNO, and the Euclid space mission invest massive capital to constrain these parameters, the standard continuum framework lacks a first-principles predictive algebra, remaining limited to post-hoc curve-fitting. In this treatise, we deploy the non-Planckian 5-dimensional cyclic complex Matrix M in C^(5x5) boundary infrastructure and the vacuum quantum phase saturation limit (Phi_C = pi/4) to formulate deterministic forward predictions of these unresolved leptonic quantities prior to experimental consensus. Through algebraic boundary spin torsion, our framework mathematically locks the leptonic sector into a strict Normal Mass Ordering (m1 < m2 < m3). Grounded in the electron rest mass anchor (m_e ≈ 0.51099895 MeV), we derive the exact absolute mass spectrum: - Lightest mass (m1): 0.000918 eV (0.918 meV)- Solar mass eigenstate (m2): 0.008713 eV (8.713 meV)- Atmospheric mass eigenstate (m3): 0.050108 eV (50.108 meV)- Cosmological mass sum (Sum m_nu): 0.059739 eV- Leptonic Dirac CP phase (delta_CP): 11pi / 8 = 247.500 deg (4.31969 rad) [Exact discrete rational form] The analytical framework is deterministically verified on an ARM64 mobile Linux kernel platform (Termux) without free fitting parameters. Permanent Master DOI Archive: https://doi.org/10.5281/zenodo.22996373

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Publication Details

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Zenodo (CERN European Organization for Nuclear Research)
Published
2026-11-05
DOI
https://doi.org/10.5281/zenodo.23973212
Primary Topic
Neutrino Physics Research
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article
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article

Exact Blind Predictions of Unknown Neutrino Parameters via 5D Complex Matrix M Boundary Decoupling: Absolute Mass Scale, Normal Hierarchy Lock, and Exact Leptonic CP Phase Angle

Joon sik Choi
Zenodo (CERN European Organization for Nuclear Research)
Neutrino Physics Research
article

Exact Blind Predictions of Unknown Neutrino Parameters via 5D Complex Matrix M Boundary Decoupling: Absolute Mass Scale, Normal Hierarchy Lock, and Exact Leptonic CP Phase Angle

Joon sik Choi
article en

Abstract

Title: Exact Blind Predictions of Unknown Neutrino Parameters via 5D Complex Matrix M Boundary Decoupling: Absolute Mass Scale, Normal Hierarchy Lock, and Exact Leptonic CP Phase Angle Author: Joon Sik Choi (Bella Vista Lux Mea / Institute for Unified Discrete Matrix Infrastructure, Sydney, Australia) Abstract:The determination of the absolute neutrino mass scale (Sum m_nu), the mass ordering hierarchy (Normal vs. Inverted), and the leptonic Dirac CP-violating phase angle (delta_CP) remains the foremost unresolved frontier in modern high-energy physics. While international facilities such as DUNE, Hyper-Kamiokande, JUNO, and the Euclid space mission invest massive capital to constrain these parameters, the standard continuum framework lacks a first-principles predictive algebra, remaining limited to post-hoc curve-fitting. In this treatise, we deploy the non-Planckian 5-dimensional cyclic complex Matrix M in C^(5x5) boundary infrastructure and the vacuum quantum phase saturation limit (Phi_C = pi/4) to formulate deterministic forward predictions of these unresolved leptonic quantities prior to experimental consensus. Through algebraic boundary spin torsion, our framework mathematically locks the leptonic sector into a strict Normal Mass Ordering (m1 < m2 < m3). Grounded in the electron rest mass anchor (m_e ≈ 0.51099895 MeV), we derive the exact absolute mass spectrum: - Lightest mass (m1): 0.000918 eV (0.918 meV)- Solar mass eigenstate (m2): 0.008713 eV (8.713 meV)- Atmospheric mass eigenstate (m3): 0.050108 eV (50.108 meV)- Cosmological mass sum (Sum m_nu): 0.059739 eV- Leptonic Dirac CP phase (delta_CP): 11pi / 8 = 247.500 deg (4.31969 rad) [Exact discrete rational form] The analytical framework is deterministically verified on an ARM64 mobile Linux kernel platform (Termux) without free fitting parameters. Permanent Master DOI Archive: https://doi.org/10.5281/zenodo.22996373

Zenodo (CERN European Organization for Nuclear Research)
Openalex Percentile: Top 21%
Neutrino Physics Research
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