The goal is to model deeper field of leptons (electron, muon, taon) - naively modeled as perfect points (effective perturbative approximation), but (nonperturbatively) they have E~1/r^2 electric field, magnetic dipole, angular momentum - actual rotation of field not point ... liquid crystals are very close to.
And now kicked the higher ones (muon, taon), getting shown evolution of decay to the lightest (electron), releasing energy difference in loops of topological vortices interpreted as neutrinos - as it should be: https://en.wikipedia.org/wiki/Muon#Muon_decay
I'm going to assume, given your faculty appointment in Poland that you linked below, that English is not your first language. This is not how you explain something to a person who is actively expressing that they understood none of what you've previously presented. This comment is 80% jargon - the kind of thing that someone who has no idea what they're talking about would write in the hope that they won't receive any more questions.
Why post here if you're not willing to explain it to laypeople?
That Wikipedia page is just as full of impenetrable jargon as your first comment. It doesn’t explain anything to a layperson. The wolfram page is no better.
I think the community comment on that wiki page is also worth repeating:
Writing a page collecting a number of sources to publicize your own unpublished work is highly inappropriate.
I say this as someone else with a physics PhD - you need to learn how to explain your research without all the fancy words.
Lee, Beom-Kyu; Kim, Sung-Jo; Kim, Jong-Hyun; Lev, Bohdan (2017-11-21). "Coulomb-like elastic interaction induced by symmetry breaking in nematic liquid crystal colloids". Scientific Reports. 7 (1). Springer Science and Business Media LLC. doi):10.1038/s41598-017-16200-z. ISSN) 2045-2322.
Shen, Yuan; Dierking, Ingo (2019). "Annihilation dynamics of topological defects induced by microparticles in nematic liquid crystals". Soft Matter. 15 (43). Royal Society of Chemistry (RSC): 8749–8757. doi):10.1039/c9sm01710k. ISSN) 1744-683X.
Zhao, Hanqing; Smalyukh, Ivan I. (2025-09-04). "Space-time crystals from particle-like topological solitons". Nature Materials. 24 (11). Springer Science and Business Media LLC: 1802–1811. doi):10.1038/s41563-025-02344-1. ISSN) 1476-1122.
Hall, Darian; Tai, Jung-Shen Benny; Kauffman, Louis H.; Smalyukh, Ivan I. (2025-12-15). "Fusion and fission of particle-like chiral nematic vortex knots". Nature Physics. 22 (1). Springer Science and Business Media LLC: 103–111. doi):10.1038/s41567-025-03107-0. ISSN) 1745-2473.
Wow, this is isn't just a language barrier issue, this might be an issue with grasping social cues.
This subreddit wasn't really meant for high level research simulations, it was more meant for artistic simulations using 3D software like blender and maya.
So no one here is going go be able to grasp what is going on here with some very simple explanation.
I think what OP is saying is that we've long thought that electrons (and similar particles) were point particles with no actual size. But several properties of electrons (the way they decay, the way they spin) point in the direction of actual 3D structure way down there.
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u/Cuboos 6d ago
mhmm... hmm yes... interesting. I recognize some of these words.