Universum-size Coriolis effect and black hole’s lost hair cause questions.

   Universum-size Coriolis effect and black hole’s lost hair cause questions. 

The Coriolis effect and the spinning galaxies raise a question: do we live in a black hole? 

A black hole’s hair means energy eruptions that form near the black hole. So, we could call those things black holes’ flares. Researchers didn’t find them, but theoretically, those things could form when the Coriolis effect, also known as the Coriolis force, at the black hole’s event horizon forms a whirl in the black hole’s gravity field. And then that opens the hole in the gravity field. But there is no evidence about those events. A black hole is an extreme object with a powerful gravity field. Natural laws exist. And affect those objects. So there must be a Coriolis effect at its fast-spinning singularity, but that requires the singularity’s existence in a black hole. Or that the Coriolis effect could have an effect on the extremely powerful, or dense gravity, and the other three fundamental interaction fields. 

So the Coriolis force can make whirls in the wave movement, and that is one thing that makes that force interesting. Earth's atmosphere's Coriolis force causes a situation. That tropical hurricanes spin in the right at north from the equator. And to the opposite direction on the south side. On Earth Coriolis effect affects the large-scale movements. But near a black hole, the spacetime is much denser, and all interactions are far stronger than on Earth. That means there should be a very strong Coriolis effect. It can turn electromagnetic fields into whirling. And turn those whirls in a certain direction. And the directions should be similar to they are on Earth. 

The Coriolis effect is a virtual force. that makes gases and liquids create whirls that rotate in a certain direction. The Coriolis effect is visible on the spinning objects. The whirls that this virtual force forms always spin in the same direction. On extreme objects. The Coriolis effect is stronger than it is on Earth. And on neutron stars and other extremely dense objects, that virtual force can stretch. And turn even steel into whirls. And finally, that Corialis effect around the black holes can turn even gravity fields into whirls. 

That makes some JWST telescope observations very interesting. Most galaxies rotate clockwise. And that causes the idea. There is some kind of layer at the edge of the universe. If those long-distance galaxies rotate clockwise, that tells us that there can be an enormous plasma wall. That connects those galaxies on the extreme ball-shaped spinning object. Another version is this. Maybe we live in a black hole. If galaxies form near this hypothetical black hole event horizon, the Coriolis effect can make this event true. That is one of the most fundamental observations that forms one of the most exciting theories in the history of cosmology. 

Astrophysicists didn’t find hairs on black holes. 

But then we can go back to the black hole’s hair. The black hole’s flares, or energy tornadoes or energy beams, destroy structures when they fall into the black hole. But can a black hole have those hairs anyway? The black hole’s structure, which could be like a gravitational soliton, can explain why those researchers cannot see that hair. There are three possible ways that a black hole can hide its hair. 

1) A black hole can have “Samurai-style hair”. In that model, those hairs can form only around the black hole’s spin axis. So in that case, the relativistic jet that goes out from the black hole forms around the black hole’s hair. 

2) A black hole has thick hair. In that case, the black hole’s hair is thick around the event horizon. That means the black hole has slick back hair. 

3) Soft hair means that there are only a few of those flares. 

4) A black hole can have black hair. That means the black hole’s hair is a flare-type gravitational wave eruption from the black hole. 

The gravitational flares can also be destructive. Traveling gravity waves or gravity tornadoes can collect electromagnetic fields around it. That forms a high-energy area around those whirls. The thing is that the fast-spinning electromagnetic field. And, if there is some kind of string-shaped energy beam that travels in the middle of it. 

Can form a situation where the structure acts as a gravity center. The string in the middle of that tornado acts like a thermal pump that transports energy out from the middle of the beam. Because energy always travels to lower energy areas, that means there comes replacing energy from the environment. And that packs energy around that energy tornado. 

The relativistic jet can form in cases where high-energy radiation interacts with an electron cloud. That makes electromagnetic shadows on the opposite side of those electrons. Those shadows can connect together, and that collects energy from around that energy beam. But the electromagnetic string that can transport energy out from the beam faster than the shell moves can also create a situation that forms a high-power energy beam. 

https://www.quantamagazine.org/astrophysicists-find-no-hair-on-black-holes-20250827/

https://www.smithsonianmag.com/smart-news/james-webb-space-telescope-reveals-that-most-galaxies-rotate-clockwise-180986224/

Image: Qaunta magazine

Black Holes, Dark Matter, and Information.

   Black Holes, Dark Matter, and Information. 

"Artist’s conception of a supermassive black hole, billions of times more massive than the sun, like those found at the centers of galaxies. The black hole’s rapid spin and powerful magnetic fields can launch enormous jets of plasma into space, a process that could potentially generate the same results as human-made supercolliders. Credit: Roberto Molar Candanosa/Johns Hopkins University" (ScitechDaily, Scientists Eye Black Holes as Cosmic Supercolliders in the Hunt for Dark Matter)

At the beginning of time, before our universe, only a G-field, or gravitational field, existed. Then, there formed some kind of whirls in that G-field. Those hypothetical whirls were gravitons. The idea is that the hypothetical graviton particle is a stick-shaped structure, a particle that forms from the quantum field. 

The form of the hypothetical graviton particle could be like tornado. So are the graviton and another hypothetical particle, axion the same thing? The idea is that we cannot see axions because their spin is so fast that it creates fields around them in the shape that looks a little bit like a black hole. 

The idea is that the graviton is so smooth that it cannot take outside fields inside it. And then it starts to transport those fields into its spin axle. So could that thing also explain dark energy? Graviton pulls energy from around it. That particle binds that energy inside in the form of kinetic energy and then aims it to the spin axle. That particle looks like a black hole. The particle collects energy until its energy level turns so high that energy can start to travel outside the particle or quantum field that surrounds it. 

When the mass or kinetic energy of a particle grows, it pulls material and quantum fields from larger areas into it. That thing locks black holes into their form. If that whirl vanishes black hole erupts immediately. That whirl denies the energy escaping from the particle’s or objects' equator. And that is the thing that creates the black hole’s relativistic jet. 

Black holes pull information inside them. Or if we think carefully, black hole rolls information from its environment around its spin axle. That means there is possibility to release that information. There is a question of whether information exists without a physical form. So if we think that information is wave movement, we must ask can information travel without superstrings or does it need superstring for existence. Information will be stored in quantum fields and particles as in curves. That should not be erased even in black holes. Those curves, or “mountains” and “valleys” can turn so low that they are hard to detect. 

But theoretically is possible to restore, or recalculate information that black hole stored. When black hole pulls quantum field, and information that quantum field carries inside it, we can think that the process is similar when something rolls paper around axle. The paper forms the roll, and it's possible to roll that paper from the axle. This is the thing. That makes the black hole collisions interesting. There is a possibility that during those events, the black hole can pull information out from another black hole. And possible somday we could decode that information. 

Researchers uncovered a hidden symphony in a black hole hidden vibrations. And that might help them to read information. That the black hole stored. 

"Black holes don’t just warp space, they sing. And now, for the first time, we’ve figured out what their cosmic echoes really sound like. Credit: Shutterstock" (ScitechDaily, Scientists Uncover the Spiraling Symphony Hidden in Black Hole Vibrations)

Another interesting thing in the universe are very old, large black holes. The biggest black holes formed in the early universe. Those monsters lost their mass after that. The reason for this is the expansion of the universe. Or, otherwise, weakening quantum fields and decreasing the number of particles. This thing tells. The universe expands. Or does it? There is another explanation for that thing. This very radical theory goes like this: the black hole is a more common phenomenon in the universe than we expected. And the black holes that are “sleeping” simply pull particles and quantum fields inside them. If those black holes exist between galaxies, they are very hard to detect. 

If all electromagnetic fields and particles are formed after the Big Bang, or the beginning of the universe, that means that when black holes pull those fields and particles inside them, there are fewer particles and fields left in the universe. So, can we see that effect as an expansion of the universe? There is a possibility that only the G-field existed before the Big Bang. And that field formed all other quantum fields. But we know that black holes are massive objects. There are black holes between galaxies. And black holes can collact particles to around them. 

That means that the dark matter should interact with black holes. And maybe that thing helps to find things like axions. Axions are hypothetical dark matter particles. Sometimes is introduced that axions are particles that spin very fast. That thing means that the axion can be like a stick or some kind of rugby ball. So, that means that. Maybe near black holes, regular particles could turn into axions. When a particle's spin accelerates, it binds energy into it in the form of kinetic energy. During that process, the outside quantum fields travel to that particle. 

And press it into a smaller size. If we think that particle is a whisk-shaped superstring stucture when outcoming quantum field pushes particle into a smaller size, those superstrings turn closer to each other. If those superstrings turn close enough to each oher. That turns the particle very smooth. And that means the quantum fields travel around the particle. The quantum fields that travel to the particle’s poles will start to travel out from the particle along its spin axis. That thing means that the particle starts stretching. 

And then it starts to transport the quantum field out from its spin axle. If some stick-shaped, fast-spinning particles form black holes, that means that the black hole will not pull things inside it. It just accelerates and aims fields form around it. That thing explains the black hole relativistic jet. That causes the idea. That maybe hypothetical gravitons are axions. Maybe. The graviton is like a tornado in the G-field.  As I wrote at the beginning of this text. 

https://scitechdaily.com/mysterious-radio-signals-reveal-whats-hiding-between-galaxies/

https://scitechdaily.com/scientists-eye-black-holes-as-cosmic-supercolliders-in-the-hunt-for-dark-matter/

https://scitechdaily.com/scientists-uncover-the-spiraling-symphony-hidden-in-black-hole-vibrations/

https://scitechdaily.com/webb-telescope-spots-oldest-black-hole-shattering-cosmic-records/