Everything forms in spirals.

Above: The fractal structure of the Messier-74 galaxy. In those structures energy and gravity are in an eternal race. You can also see things like holes in that gas disk, or a galactic nebula.  If there is a whirl there are four possibilities. There can form planets and the sun. But if the star that forms is too big, it blows the material disk away from its environment. And that denies the planetary system formation. Or if the disk is very massive it falls straight to a black hole. The empty places in the disk are areas where some cosmic catastrophe has blown the material away. 

Or there is a possibility that a denser spherically-shaped material cloud or nebula pulls material away from the middle of it. Or in those holes formed stars and planets or black holes pulled that gas away from those holes in the nebula. Or, maybe the extremely powerful supernovas blew cosmic gas away from that point. 

JWST found new data to explain how spiral galaxies form. There are two structures in the spiral galaxy: thin and thick. The thin disk can form earlier and then the thin structure's gravity starts to collect the thick structure around it. Those two structures move at different speeds and that causes problems with the models. 

The spiral structures that move at different speeds create the whirls that start to collect material into them. So, the star formation begins in those points. That thing explains the star, planet, and finally neutron star and black hole formation as the whirls that form around material. Or actually, all particles in the universe from the quark to the most massive objects form from whirls.

"Webb/NIRCam composite images of a quarter of the team’s sample sorted by increasing redshift. Image credit: Tsukui et al., doi: 10.1093/mnras/staf604." (SciNews, Webb Sheds New Light on Structural Evolution of Disk Galaxies)

If the whirl is large enough it can press the particle or any other object into one entirety called a singularity. The particle that spins at a very high speed binds quantum fields around itself. And how big an object can that process form? That depends on the energy level of that particle. The energy transfer into that particle continues until it can push that whirl away from it. So theoretically one single particle like a proton or electron can form a supermassive black hole. But that requires an absolutely stable environment. 

The requirement is that the particles can form such a large whirl and bind energy or quantum fields into it so fast that it cannot push that energy away. That means the particle must spin with an extremely high speed. The idea is that the black hole or any other structure in the universe creates a whirl around it. An interesting thing is that all objects from stars to planets are forming from whirl-shaped structures. The spiral galaxy is actually the supermassive black hole’s material disk. That disk keeps the supermassive black hole in its form. Without that disk, the energy that is trapped in the black hole will be released. 

The black hole’s relativistic jet tells that the gravity center is a structure that aims, or conducts energy somewhere else. Energy travels to the black hole’s spin axis and there forms the relativistic jets. The main problem is: is the source of the relativistic jet outside the event horizon or inside it? In a wormhole model, the black hole forms a gravitational tornado. The structure forms a situation where a gravitational field or quantum field forms a tornado-shaped structure. The idea of that phenomenon is that if the gravity field turns into a spiral, then that thing causes a situation where there is no gravity field in the black hole’s spin axis. Maybe that channel explains the relativistic jet. 

https://esawebb.org/wordbank/electromagnetic-spectrum/

https://www.sci.news/astronomy/webb-structural-evolution-disk-galaxies-14026.html

Supernova is one of the most violent phenomena in the universe.

Crab nebula or M-1 is one of the most well-known supernova remnants. (Wikipedia/Crab Nebula)

During the supernova explosion, the star pushes its outer core to space. In that case, the massive and powerful shockwave is starting to travel to space. When the extremely fast-moving particles are traveling in the universe they form a bubble. That is like an electromagnetic vacuum or WARP bubble. The reason for that effect is that those particles are pushing the wave movement ahead of them shorter. 

And the Doppler effect of those particles will move quantum fields around the star away. When there are holes in that Doppler bubble while the distance of those particles increases- Energy starts to travel inside the electromagnetic vacuum. And that energy is pressing the nucleus of the star to the form called a Black Hole or neutron star if the mass of the star is lower than three masses of the sun. 

The film is "The house in the middle". And you can see the direction where the effect is the most powerful. The vacuum causes more destruction than the pressure wall that goes out from ground zero. So there is the possibility that supernova could act similarly. 

At first, the shockwave from the explosion will push the visible and dark matter away from the star. But then the electromagnetic wave movement is starting to flow to that bubble because there is less energy than outside. Energy travels always to lower energy zone. 

So the idea for that model is taken from the films of a nuclear explosion. The outgoing shockwave is not so devastating as the vacuum that the nuclear explosion makes. And when we are thinking the supernovas they are like a massive nuclear explosion. When the fuel of the star is lost it starts to collapse. And during that process, gravitation pulls the star to its nucleus. And finally, the star explodes. 

That explosion causes an extremely powerful shockwave that causes the vacuum behind it. And the supernovas are also sending gravitational waves. So that shockwave can cause the situation that energy starts to travel in that bubble and that outcoming energy pushes the nucleus of the star to its entirety there are only neutrons, quarks, or the black hole. 

The last one has so powerful gravitational field that even light cannot escape from there. Because the escaping velocity from the black hole is higher than the speed of the light all particles from photons to neutrons are traveling at the same speed. But the question is does the positive or negative energy from the black hole after the supernova explosion?

https://en.wikipedia.org/wiki/Black_hole

https://en.wikipedia.org/wiki/Doppler_effect

https://en.wikipedia.org/wiki/Neutron_star

https://en.wikipedia.org/wiki/Supernova

Image: https://en.wikipedia.org/wiki/Crab_Nebula

https://thoughtsaboutsuperpositions.blogspot.com/