Quantum wake conductivity

This manuscript expands the fluid-dynamic representation of quantum and relativistic phenomena to deliver a complete, deterministic mechanical formulation of solid-state transport regimes and phase transitions. By moving away from the traditional probabilistic conventions of Bloch wave functions and electron-phonon scattering parameters, this work introduces a model driven by localized aerodynamic supercavitation, interfacial impedance matching, and the strict conservation of angular momentum across non-identical atomic boundaries. A central feature of this framework is the formal introduction of the Jump-and-Residence duty cycle, which successfully reconciles standard sub-relativistic Fermi velocities with the localized hyper-relativistic fluid conditions required to sustain supercavitation. Furthermore, the paper reclassifies quantum tunneling and superconductivity as macroscopic unipolar entanglement matrices, mapping out deterministic hydrodynamic decay mechanisms to establish a rigorous kinematic threshold for critical temperature (T_c) phase transitions. Key Theoretical Highlights Rejection of Statistical Abstractions: Replaces abstract wave-function probabilities with concrete, visualizable hydrodynamic and aerodynamic mechanisms. The Jump-and-Residence Cycle: Explains how electron vortices transition between hyper-relativistic speeds during spatial jumps and sub-relativistic containment within atomic nodes. Unipolar Entanglement Matrix: Unifies the mechanisms behind quantum tunneling and superconductivity under a single fluidic framework of zero-density vacuum corridors. Empirical Predictability: Outlines explicit, testable topological predictions—such as hyper-velocity jetting and precessional snapping—at the boundary interfaces of heterogeneous superconducting junctions. Author's Note on Text and Editing Please Note: The core physics, fluid-dynamic frameworks, and scientific concepts presented in this paper are entirely original, mechanically solid, and fully the author's own work. However, due to personal circumstances, the author does not have access to professional editing or proofreading services. Being dyslexic, the author utilized various free online tools to assist with text formatting, grammar drafting, and synthesis. Readers are kindly asked for their understanding regarding any minor typographical, stylistic, or grammatical errors that may persist in the text.

Authors

Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-06-25
DOI
https://doi.org/10.5281/zenodo.20845090
Primary Topic
Cold Atom Physics and Bose-Einstein Condensates
Type
article
Field-Weighted Citation Impact
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article

Quantum wake conductivity

Mohammd Raeed Alanssari
Zenodo (CERN European Organization for Nuclear Research)
Cold Atom Physics and Bose-Einstein Condensates
article

Quantum wake conductivity

Mohammd Raeed Alanssari
article en

Abstract

This manuscript expands the fluid-dynamic representation of quantum and relativistic phenomena to deliver a complete, deterministic mechanical formulation of solid-state transport regimes and phase transitions. By moving away from the traditional probabilistic conventions of Bloch wave functions and electron-phonon scattering parameters, this work introduces a model driven by localized aerodynamic supercavitation, interfacial impedance matching, and the strict conservation of angular momentum across non-identical atomic boundaries. A central feature of this framework is the formal introduction of the Jump-and-Residence duty cycle, which successfully reconciles standard sub-relativistic Fermi velocities with the localized hyper-relativistic fluid conditions required to sustain supercavitation. Furthermore, the paper reclassifies quantum tunneling and superconductivity as macroscopic unipolar entanglement matrices, mapping out deterministic hydrodynamic decay mechanisms to establish a rigorous kinematic threshold for critical temperature (T_c) phase transitions. Key Theoretical Highlights Rejection of Statistical Abstractions: Replaces abstract wave-function probabilities with concrete, visualizable hydrodynamic and aerodynamic mechanisms. The Jump-and-Residence Cycle: Explains how electron vortices transition between hyper-relativistic speeds during spatial jumps and sub-relativistic containment within atomic nodes. Unipolar Entanglement Matrix: Unifies the mechanisms behind quantum tunneling and superconductivity under a single fluidic framework of zero-density vacuum corridors. Empirical Predictability: Outlines explicit, testable topological predictions—such as hyper-velocity jetting and precessional snapping—at the boundary interfaces of heterogeneous superconducting junctions. Author's Note on Text and Editing Please Note: The core physics, fluid-dynamic frameworks, and scientific concepts presented in this paper are entirely original, mechanically solid, and fully the author's own work. However, due to personal circumstances, the author does not have access to professional editing or proofreading services. Being dyslexic, the author utilized various free online tools to assist with text formatting, grammar drafting, and synthesis. Readers are kindly asked for their understanding regarding any minor typographical, stylistic, or grammatical errors that may persist in the text.

Zenodo (CERN European Organization for Nuclear Research)
Openalex Percentile: Top 7%
Cold Atom Physics and Bose-Einstein Condensates
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