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Main Author: Cortina-Ceballos, Bernardo
Format: Recurso digital
Language:English
Published: Zenodo 2025
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Online Access:https://doi.org/10.5281/zenodo.17845292
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author Cortina-Ceballos, Bernardo
author_facet Cortina-Ceballos, Bernardo
contents <p>We propose a Discrete Topological Field Theory (DTFT) in 3+1 dimensions to address the Hierarchy Problem and the Vacuum Catastrophe. By modeling the vacuum as a superfluid lattice governed by the Skyrme-Faddeev action, we investigate the emergence of particles as knotted solitons, termed <em>Planckeons</em> (<span>$\mathfrak{p}$</span>) in this discrete context. We demonstrate that fermionic mass arises from a <strong>geometric equilibrium mechanism</strong>—intuitively modeled as a pressurized elastic tube—where topological tension is balanced by internal repulsive pressure. Furthermore, we derive a <strong>Lattice Energy-Length Relation</strong> (<span>$E \approx \lambda/l_P^2$</span>) that regularizes the vacuum energy density. Finally, we propose a "Topological Precautionary Principle" for high-energy experiments near the vacuum nucleation threshold.</p>
format Recurso digital
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institution Zenodo
language eng
publishDate 2025
publisher Zenodo
record_format zenodo
spellingShingle Mass Generation and Vacuum Energy Density in a Discrete Skyrme-Faddeev Lattice
Cortina-Ceballos, Bernardo
Skyrme-Faddeev Model
Topological Solitons
Hierarchy Problem
Vacuum Energy
Research Ethics
<p>We propose a Discrete Topological Field Theory (DTFT) in 3+1 dimensions to address the Hierarchy Problem and the Vacuum Catastrophe. By modeling the vacuum as a superfluid lattice governed by the Skyrme-Faddeev action, we investigate the emergence of particles as knotted solitons, termed <em>Planckeons</em> (<span>$\mathfrak{p}$</span>) in this discrete context. We demonstrate that fermionic mass arises from a <strong>geometric equilibrium mechanism</strong>—intuitively modeled as a pressurized elastic tube—where topological tension is balanced by internal repulsive pressure. Furthermore, we derive a <strong>Lattice Energy-Length Relation</strong> (<span>$E \approx \lambda/l_P^2$</span>) that regularizes the vacuum energy density. Finally, we propose a "Topological Precautionary Principle" for high-energy experiments near the vacuum nucleation threshold.</p>
title Mass Generation and Vacuum Energy Density in a Discrete Skyrme-Faddeev Lattice
topic Skyrme-Faddeev Model
Topological Solitons
Hierarchy Problem
Vacuum Energy
Research Ethics
url https://doi.org/10.5281/zenodo.17845292