Quantum Mechanics as Tension Pathfinding: Wavefunction Collapse from Accessibility Minimization

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1. Verfasser: Lehn, Henrik
Format: Recurso digital
Sprache:Englisch
Veröffentlicht: Zenodo 2025
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author Lehn, Henrik
author_facet Lehn, Henrik
contents <p>We demonstrate that quantum mechanics emerges naturally from universal tension minimization, resolving the measurement problem and unifying quantum and classical physics. The wavefunction represents a map of accessible tension pathways, with its squared magnitude quantifying the relative tension of each path.</p> <p>Wavefunction collapse is not mysterious — it is the system committing to the minimum accessible tension path when measurement forces path selection. The Schrödinger equation derives from dD/dt ≤ 0 with quantum constraints. Heisenberg uncertainty emerges from quantum tension floors (Third Law).</p> <p>Entanglement reflects shared tension fields, not "spooky action." The double-slit experiment shows interference of tension pathways, resolved upon measurement. This framework unifies quantum mechanics with general relativity and thermodynamics under the Theory of Cosmic Architecture (TOCA), eliminating probabilistic interpretation in favor of deterministic tension minimization with accessibility constraints. Quantum mechanics is not fundamentally different from classical physics — it is tension dynamics at scales where quantum floors dominate.</p>
format Recurso digital
id zenodo_https___doi_org_10_5281_zenodo_18105029
institution Zenodo
language eng
publishDate 2025
publisher Zenodo
record_format zenodo
spellingShingle Quantum Mechanics as Tension Pathfinding: Wavefunction Collapse from Accessibility Minimization
Lehn, Henrik
Quantum Mechanics, Wavefunction Collapse, Tension Minimization, TOCA, Schrödinger Equation, Heisenberg Uncertainty, Entanglement, Measurement Problem, Determinism, Henrik Lehn
<p>We demonstrate that quantum mechanics emerges naturally from universal tension minimization, resolving the measurement problem and unifying quantum and classical physics. The wavefunction represents a map of accessible tension pathways, with its squared magnitude quantifying the relative tension of each path.</p> <p>Wavefunction collapse is not mysterious — it is the system committing to the minimum accessible tension path when measurement forces path selection. The Schrödinger equation derives from dD/dt ≤ 0 with quantum constraints. Heisenberg uncertainty emerges from quantum tension floors (Third Law).</p> <p>Entanglement reflects shared tension fields, not "spooky action." The double-slit experiment shows interference of tension pathways, resolved upon measurement. This framework unifies quantum mechanics with general relativity and thermodynamics under the Theory of Cosmic Architecture (TOCA), eliminating probabilistic interpretation in favor of deterministic tension minimization with accessibility constraints. Quantum mechanics is not fundamentally different from classical physics — it is tension dynamics at scales where quantum floors dominate.</p>
title Quantum Mechanics as Tension Pathfinding: Wavefunction Collapse from Accessibility Minimization
topic Quantum Mechanics, Wavefunction Collapse, Tension Minimization, TOCA, Schrödinger Equation, Heisenberg Uncertainty, Entanglement, Measurement Problem, Determinism, Henrik Lehn
url https://doi.org/10.5281/zenodo.18105029