Superfluid String Dynamics: Creating an empirical unification of fundamental forces for practical applications

In this document I explain and demonstrate an empirically derived model that allows the mathematical unification of the 4 fundamental forces from first principles by means of a derived Chrono-rotating superfluid model. I examine how to map the fundamental forces and properties of matter into a fluid model, and then derive from this a unified equation. I then demonstrate how this unified equation replicates existing physics while also predicting currently observed experimental anomalies. This model attempts unification by approaching it from the perspective of observed behaviors rather than trying to guess about unknowns. The result is a model and an equation that allows unified treatment of the fundamental forces, in a way that accounts for experimental anomalies while being simple extensions of existing physics. I present this unification as a functional scientific and engineering tool, in order to direct understanding and practical application, rather than trying to explain the origin of everything. I demonstrate how to create a model such that the Math works and matches with experimental reality. My hope is that having a working unified mathematical framework can help advance more complete "theories of everything" and can assist in accelerating science and engineering in the short to medium term. The model by it's very nature implies that more exists beyond the bounds of the model - the model simply incorporates the minimum elements required in order to mathematically replicate observed reality. Updated version-Fixed Text issues-Consolidated Quantum Mechanics modelling / explanation-Fixed/Updated Vacuum stability calculation to take account of the constituent strings (implies greatly improved stability)-Added modelling for Entanglement and Stochastic modulation.

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Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2025-12-25
DOI
https://doi.org/10.5281/zenodo.18052171
Primary Topic
Quantum Electrodynamics and Casimir Effect
Type
article
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article

Superfluid String Dynamics: Creating an empirical unification of fundamental forces for practical applications

Jamie Swithenbank
Zenodo (CERN European Organization for Nuclear Research)
Quantum Electrodynamics and Casimir Effect
article

Superfluid String Dynamics: Creating an empirical unification of fundamental forces for practical applications

Jamie Swithenbank
article en

Abstract

In this document I explain and demonstrate an empirically derived model that allows the mathematical unification of the 4 fundamental forces from first principles by means of a derived Chrono-rotating superfluid model. I examine how to map the fundamental forces and properties of matter into a fluid model, and then derive from this a unified equation. I then demonstrate how this unified equation replicates existing physics while also predicting currently observed experimental anomalies. This model attempts unification by approaching it from the perspective of observed behaviors rather than trying to guess about unknowns. The result is a model and an equation that allows unified treatment of the fundamental forces, in a way that accounts for experimental anomalies while being simple extensions of existing physics. I present this unification as a functional scientific and engineering tool, in order to direct understanding and practical application, rather than trying to explain the origin of everything. I demonstrate how to create a model such that the Math works and matches with experimental reality. My hope is that having a working unified mathematical framework can help advance more complete "theories of everything" and can assist in accelerating science and engineering in the short to medium term. The model by it's very nature implies that more exists beyond the bounds of the model - the model simply incorporates the minimum elements required in order to mathematically replicate observed reality. Updated version-Fixed Text issues-Consolidated Quantum Mechanics modelling / explanation-Fixed/Updated Vacuum stability calculation to take account of the constituent strings (implies greatly improved stability)-Added modelling for Entanglement and Stochastic modulation.

Zenodo (CERN European Organization for Nuclear Research)
Liberty University (US)
Openalex Percentile: Top 32%
Quantum Electrodynamics and Casimir Effect
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Superfluid String Dynamics: Creating an empirical unification of fundamental forces for practical applications — Jamie Swithenbank · Zenodo (CERN European Organization for Nuclear Research) (2025) | TGRS Research Map | TGRS