The Hydrodynamic Origin of Standard Model Symmetries via Residual Compactification and Dense Associative Memory

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1. Verfasser: Aksman, Michael
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Veröffentlicht: Zenodo 2026
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author Aksman, Michael
author_facet Aksman, Michael
contents <p>Crucially, we demonstrate that this hydrodynamic selection aligns with the principle of Dense<br>Associative Memory (Krotov & Hopfield, 2016). We show that the SU(3) Borromean linking<br>required for proton stability is physically equivalent to a cubic (V^3) interaction term, which<br>maximizes the topological information storage capacity of the vacuum while avoiding the brittle<br>"overfitting" of higher-order interactions. The Standard Model is thus identified as the optimal<br>fixed point of a turbulent system that maximizes memory retention.</p>
format Recurso digital
id zenodo_https___doi_org_10_5281_zenodo_18308248
institution Zenodo
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publishDate 2026
publisher Zenodo
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spellingShingle The Hydrodynamic Origin of Standard Model Symmetries via Residual Compactification and Dense Associative Memory
Aksman, Michael
<p>Crucially, we demonstrate that this hydrodynamic selection aligns with the principle of Dense<br>Associative Memory (Krotov & Hopfield, 2016). We show that the SU(3) Borromean linking<br>required for proton stability is physically equivalent to a cubic (V^3) interaction term, which<br>maximizes the topological information storage capacity of the vacuum while avoiding the brittle<br>"overfitting" of higher-order interactions. The Standard Model is thus identified as the optimal<br>fixed point of a turbulent system that maximizes memory retention.</p>
title The Hydrodynamic Origin of Standard Model Symmetries via Residual Compactification and Dense Associative Memory
url https://doi.org/10.5281/zenodo.18308248