I follow the BSM-SG model, which also has no dark matter to explain galaxy rotations. Disclaimer: I choose my models after reduction of assumptions and stricte

I follow the BSM-SG model, which also has no dark matter to explain galaxy rotations. Disclaimer: I choose my models after reduction of assumptions and stricter logic is better (Solomonoff Induction). Secondly, I understood when studying physics, that there seems something wrong, but could not put my finger on it. So, naturally it made the most sense for me, to first check all the assumptions currently used and drop those that could easily be seen differently. In fact, the BSM-SG model assumes so less, that I actually accepted it after a year of heavy studying and thinking - the first model ever for me. It however has some "dark matter" called filaments which are the residue of the galactic crystallization egg so to say. Read some paper last year that found them, but of course, they thought it's dark matter. It is actually black black - absolutely no photon emissions even when heated to millions of degrees. In the BSM-SG model galaxies crystallize, it does not have a big bang theory. The galactic redshift has a very different explanation. The filaments are only located around the super massive black hole in every well formed galaxy (not globular clusters). They are the hardest and densest hard matter in the universe. Everything we know is super soft compared to this stuff. Our hole star system is maybe a cubic centimeter of this stuff. If you take all the fragments of the fillaments and put them together they build a perfect hollow sphere that fits perfectly around the black hole. Another really wired property: if you take a cube of it and cut it in half, the mass of both parts will be more then the mass of the original cube. Sounds paradoxical at first, but once you understand how Newtonian mass is derived and that it is basically an surface property it makes sense. If you separate ordinary matter, you don't increase to surface of atomic structures towards the vacuum. You get relativistic changes due the microcurviture, but the surface stays the same. This stuff you can cut and increase the surface until the particle is smaller then the CL node distance ~10^-20 m at which point it will loos its Newtonian mass and only the intrinsic mass will manifest. Same effect as some Neutrinos have. But year, I'm a nut job who does not believe in what most think is true, but to be honest, I don't care. It works so wonderfully and if you can interpret papers from this models perspective, I have not found a single paper that even shakes on it's fundamentals. Some days ago a paper was posted here in which they found "magic angles" in graphene which was doted. I predicted 2 years ago that there will be some angle influence between the graphene layers. To predict something more, you know, because I'm nuts: most of the grapheme we use is quite unordered. There are 2 possibilities in which the carbon atom can be positioned. To get a really good conductor the atoms need to be properly aligned together with the alignment of the 2 layers. The standard perspective on the atomic nucleus is totally oversimplified and this is something quite some scientists found trough different ways. The BSM-SG model was the first model where the periodic table stared to make sense for me, together with all the isotopes.