The V3 Model: Unification of Protonic Coherence and the -50 mV Phase Attractor for Energy and Health

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Authors: outail benhadid
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Abstract

Abstract Title: The V3 Model: Unification of Protonic Coherence and the -50 mV Phase Attractor for Energy and Health. This thesis establishes the V3 Model, a transformative theoretical framework that unifies condensed matter physics and quantum biophysics through the mastery of phase coherence in structured water. At the core of this synthesis lies the discovery of the -50 mV Phase Attractor, identified as a universal thermodynamic tipping point where macroscopic order emerges from stochastic chaos. By applying an eigenvalue equation to the Ordered Coherence Interface (\Psi_{OCI}), the model demonstrates that the -50 mV potential represents the fundamental ground state necessary to stabilize long-range quantum order. This state facilitates a phase transition in water molecules under extreme confinement (1-2 nm) into a liquid crystalline H_3O_2 phase, known as the Exclusion Zone. The V3 Model provides two paradigm-shifting applications: Energy Storage: The transition from diffusive Grotthuss jumps to Ballistic Protonic Superconductivity enables lossless energy transport (I^2R = 0). This principle underpins the V3 Battery, a protonic supercapacitor with a theoretical lifespan exceeding 150 years. Phase Medicine: Pathological states are redefined as quantum decoherence—the introduction of entropy-generating noise (W) that displaces the cellular system from its attractor. Healing is achieved through a "Flash Regeneration" protocol, utilizing a corrective operator (H_{Corr}) to re-pin the biological system to the -50 mV state in millisecond kinetics. This work signals the end of the Chemical Age and the dawn of the Coherent Age, providing the mathematical and physical blueprint for sovereign clean energy and systemic biological regeneration.

Fields of Study & Subjects

Chemical and Physical Studies Biofield Effects and Biophysics Material Dynamics and Properties

Publication details

Journal / source
Zenodo (CERN European Organization for Nuclear Research)
Publication date
15 March 2026
Language
EN
Document type
Thesis