Viscous Electrodynamics and the Rheological Nature of Superconductivity: From Momentum Dissipation to the Shlyapik Phase Transition

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1. Verfasser: Shlyapik, Alexander
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Sprache:Englisch
Veröffentlicht: Zenodo 2026
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author Shlyapik, Alexander
author_facet Shlyapik, Alexander
contents <p>This paper presents a fundamental derivation of electrical resistance and superconductivity based on the Fermion Ocean Hypothesis (FUH). We demonstrate that Ohm’s Law is a macroscopic manifestation of the viscous drag exerted by the ψ-condensate on charge carriers. By introducing the viscous tax coefficient (η ≈ 1.2 × 10^−15 Pa·s), we show that superconductivity emerges as a local phase transition of the vacuum into a superfluid state (Jvac → 0) when the internal lattice pressure exceeds the Shlyapik Threshold (7.76 keV). Furthermore, time is redefined as the relaxation rate of the viscous manifold, providing a deterministic arrow for dissipative processes.</p>
format Recurso digital
id zenodo_https___doi_org_10_5281_zenodo_20355680
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language eng
publishDate 2026
publisher Zenodo
record_format zenodo
spellingShingle Viscous Electrodynamics and the Rheological Nature of Superconductivity: From Momentum Dissipation to the Shlyapik Phase Transition
Shlyapik, Alexander
Fermionic Universe Hypothesis
FUH
OCEAN Project
Superconductivity
RheologicalPhysics
ShlyapikPhaseTransition
Quantum Viscosity
BeyeondStandardModel
Quantum Hydrodynamic
Viscous Electrodynamics
<p>This paper presents a fundamental derivation of electrical resistance and superconductivity based on the Fermion Ocean Hypothesis (FUH). We demonstrate that Ohm’s Law is a macroscopic manifestation of the viscous drag exerted by the ψ-condensate on charge carriers. By introducing the viscous tax coefficient (η ≈ 1.2 × 10^−15 Pa·s), we show that superconductivity emerges as a local phase transition of the vacuum into a superfluid state (Jvac → 0) when the internal lattice pressure exceeds the Shlyapik Threshold (7.76 keV). Furthermore, time is redefined as the relaxation rate of the viscous manifold, providing a deterministic arrow for dissipative processes.</p>
title Viscous Electrodynamics and the Rheological Nature of Superconductivity: From Momentum Dissipation to the Shlyapik Phase Transition
topic Fermionic Universe Hypothesis
FUH
OCEAN Project
Superconductivity
RheologicalPhysics
ShlyapikPhaseTransition
Quantum Viscosity
BeyeondStandardModel
Quantum Hydrodynamic
Viscous Electrodynamics
url https://doi.org/10.5281/zenodo.20355680