How Pattern Algebra Confirms the Vienna Experiment Quantum Entanglement as an Algebraic Theorem

Fuente: Zenodo
Saved in:
Bibliographic Details
Main Author: sorce, Mario
Format: Recurso digital
Language:En
Published: Zenodo 2026
Subjects:
Online Access:
Tags: Add Tag
No Tags, Be the first to tag this record!
_version_ 1866901574675070976
author sorce, Mario
author_facet sorce, Mario
contents <p>The 2026 Vienna experiment demonstrated temporal quantum entanglement at 7.3σ<br>statistical significance — two photons entangled despite never coexisting in time. This<br>document derives why this result is not only consistent with Pattern Algebra v6.1 (PA) but<br>algebraically inevitable from first principles.<br>The derivation traces an unbroken chain from Adolf Hurwitz's 1898 pure mathematics<br>theorem through General Relativity, Quantum Mechanics, and Bell's theorem to the Vienna<br>experiment. The central finding is that quantum entanglement, the fine structure constant α =<br>1/137.036, four-dimensional spacetime, and the weak force gauge structure are not four<br>independent facts about nature. They are four readings of the same algebraic object: the<br>inner automorphism q → u·q·u† of the quaternion algebra , which ℍ Hurwitz proved is the<br>unique four-dimensional normed division algebra.</p>
format Recurso digital
id zenodo_https___doi_org_10_5281_zenodo_19379537
institution Zenodo
language enc
publishDate 2026
publisher Zenodo
record_format zenodo
spellingShingle How Pattern Algebra Confirms the Vienna Experiment Quantum Entanglement as an Algebraic Theorem
sorce, Mario
Particle physics
Physical cosmology
Linear algebra
<p>The 2026 Vienna experiment demonstrated temporal quantum entanglement at 7.3σ<br>statistical significance — two photons entangled despite never coexisting in time. This<br>document derives why this result is not only consistent with Pattern Algebra v6.1 (PA) but<br>algebraically inevitable from first principles.<br>The derivation traces an unbroken chain from Adolf Hurwitz's 1898 pure mathematics<br>theorem through General Relativity, Quantum Mechanics, and Bell's theorem to the Vienna<br>experiment. The central finding is that quantum entanglement, the fine structure constant α =<br>1/137.036, four-dimensional spacetime, and the weak force gauge structure are not four<br>independent facts about nature. They are four readings of the same algebraic object: the<br>inner automorphism q → u·q·u† of the quaternion algebra , which ℍ Hurwitz proved is the<br>unique four-dimensional normed division algebra.</p>
title How Pattern Algebra Confirms the Vienna Experiment Quantum Entanglement as an Algebraic Theorem
topic Particle physics
Physical cosmology
Linear algebra
url https://doi.org/10.5281/zenodo.19379537