3-Toris on cables.

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Authors: Peer-Philipp Specka
Cited by: 0

Abstract

Due to an observation that organic and inorganic matter repeatedly express fibres and networks and that nature and forces seem to align towards most optimal path solutions, FTD proposes a parameter-free derivation of 29 Standard Model observables, based on the idea of underlying cable structures as the most commonly found principle across matter types. A topological identification of the polarizing 3-Torus of the Skyrme-Faddeev-Niemi class, embedded in a Casimir vacuum lattice. The deviation from the SFN Model, is the obervation that under force, a 3-Torus could potentially be threaded into the Vortex channel of other 3-Tori. A Torus threaded in an energy dense region may even be threaded macroscopically through many others; the resulting "cable" would have to store energy in Torque, while its polarization modes are supressed. This confinement hinders the channeled 3-Torus from developing Casimir cells, keeping the lattice lorentz invariant and establish CPT symmetry, if applied to cosmic scale. Torque topologically adds Twist and Writhe on cables, which are possible to be interpreted as entropy and the Arrow of Time. The Fuller-Calugareanu conservation law ΔTw+ΔW=0 serves as the energy conservation mechanism from which particle masses, the CKM matrix, lepton hierarchy, and CPT invariance all emerge as geometric consequences. With 26 of 29 derived observables agreeing with experiment to within 2% based on model calculations only. Derivations of the exact observables would require a full expression of the FTD-lagrangian, which is work in progress. Contact: Peer.P.Specka@GMX.de

Fields of Study & Subjects

Advanced Mathematical Theories and Applications Particle physics theoretical and experimental studies Relativity and Gravitational Theory

Publication details

Journal / source
Zenodo (CERN European Organization for Nuclear Research)
Publication date
14 March 2026
Language
EN
Document type
Dataset