Dark matter is not ruled out as the cause of the Milky Way's strange glow.

“An image of the gamma-ray excess observed at the center of the Milky Way, overlaid on an optical image of the galaxy. Scientists have debated the origin of this excess and whether it could be caused by dark matter for more than a decade. Credit: NASA; A. Mellinger/Central Michigan University; T. Linden/University of Chicago” (ScitechDaily, The Milky Way’s Mysterious Glow May Be Dark Matter After All)

Milky Way’s strange glow. The high-energy gamma-ray emission caused grey hair among astronomers. There is suspicion that the annihilating dark matter. It can cause the gamma-ray glow. This suggests that gamma-ray emission can occur when high-density dark matter particles collide. That can explain why this halo seems to come from the Sagittarius A. Sgr*A. Or around it. This means that the dark matter. 

It can form a similar material disk. Around the SgrA as visible matter. The material disk around the Sgr*A. It is one. Of the highest energy objects in the universe. This means that. The energy level in the dark matter material disk would be enormous. But can dark matter send gamma-rays? That is one of the things that answers require more observations. If there is some kind of annihilation between those dark matter particles. 

That should require. That. There is also an anti-matter version of the dark matter. This means that the hypothetical dark matter particles. They should have an anti-particle pair. But nobody has seen a dark matter particle yet. The glow can also form. In the friction between dark matter particles in the extremely dense energy field. But if dark matter sends gamma-rays. That causes this glow. 

The gamma-ray glow. It can come directly from dark matter. Or it can be an emission radiation from other particles. This means that in an extremely high-energy area. The matter moves very fast. This can cause a situation. That dark energy that the dark matter sends. It can cause visible interaction with some material particles. The glow could also form. When dark matter particles hit electrons. If those impacts happen often enough. That thing. It can raise the energy level in those visible particles. That we can see that reaction. 

There is a model about dark matter. The idea is that dark matter actually glows. Or we could see that thing. But the glow from the visible particles covers that glow below it. If dark matter particles send dark energy. That energy could have such a short wavelength. That gamma-rays could cover that thin layer below it. If that is right. The dark matter particle. It’s a very small and high-energy particle. There is a model. That's the dark matter particles. They are the same as mythical gravitons. 

The idea is that. The dark matter particle. It is a quantum-sized black hole. If that is right. The quantum-sized black holes. Smaller than quarks. They can also send dark energy. Those quantum black holes. They have similar halos, energy disks, and relativistic jets. As normal black holes  have. Those things are only a far smaller size. So, when those halos and transition disks impact each other. That thing can send gamma-rays. If that model. It's true. The relativistic jet that those black holes form. It can turn into a superstring. 

In this model. In the middle of every single particle is a quantum-size black hole. The shell of the particle. It will be the halo of those extremely small black holes. 

This means that those quantum-sized relativistic jets are things. That makes particles pull each other. When that quantum jet hits a lower-energy particle. That lower energy particle. Pulls energy from that string. That will pull the other particle. To that lower energy particle. Or rather saying. Lower energy particle. It pulls fields to it. Then that field falls. The higher energy particle. Then that higher-energy particle points its relativistic jet at another particle. And then. The lower energy particle pulls. The higher energy particle. To it.

This could explain many things. Like annihilation. The annihilation forms. When opposite-spinning quantum fields touch each other.  This means that. This effect is similar to the collimation of the larger black holes. That can explain the gamma-ray burst in annihilation. 

https://scitechdaily.com/the-milky-ways-mysterious-glow-may-be-dark-matter-after-all/

https://en.wikipedia.org/wiki/Sagittarius_A*

The electromagnetic interaction can slow black holes.

Plasma around a black hole sends powerful radiation. That radiation causes effects, and the black hole also pushes objects from around it. It’s not only gravitation. That pulls objects to the black hole. Also, things like electrons and protons that impact objects have an effect on objects. When gravity alone pulls objects, it is not the same. As the gravitation. And electromagnetic interactions together pull objects like electrons. 

Maybe electromagnetic interaction itself cannot slow a black hole. But the electromagnetic interaction can slow plasma whirl. Around a black hole. Or the electromagnetic interaction can pull plasma away from the black hole. That decreases the energy that travels in that object. When a small object like an electron falls into a black hole. It’s possible. That just before it hits the event horizon. The electron transmits energy. 

Out of the black hole. The top point of the electron is on a lower energy level. Than the bottom of it. That causes a situation. Where energy travels to the top of the electron. That forms a small high-energy object at its axle. And that pushes the electron forward. Normally, those things mean almost nothing. But in a black hole’s extremely dense conditions, even a small thing. Means very much. 

The interaction between magnetic fields and black holes is one of the least researched phenomena in the universe. The interaction means that the magnetic field can slow down. The rotation of a black hole. The rotation of a black hole slows when the magnetic field accelerates or slows. Plasma whirls around the black hole. When that whirl accelerates. It converts kinetic energy into it. When the speed of that whirl slows, it releases its kinetic energy. 

"A still image from a computer simulation of a black hole’s formation and evolution. Credit: Ore Gottleib/Simons Foundation" (ScitechDaily, Scientists Finally Explain Mysterious “Impossible” Merger of Two Massive Black Holes)

"An infographic describing the new work. Credit: Lucy Reading-Ikkanda/Simons Foundation". (ScitechDaily, Scientists Finally Explain Mysterious “Impossible” Merger of Two Massive Black Holes)

When plasma starts to whirl near a black hole’s event horizon, its energy level rises. And that means they bring more energy to the black hole. The mass of those particles is far higher than outside the whirl. And when the magnetic field pulls those particles backward. That effect also affects the black hole’s gravitational field. It slows the black hole’s rotation speed. 

A black hole takes its energy from the whirl. Around it. The black hole binds energy from that whirl. Into it. And transforms it into kinetic energy. When the speed of the whirl slows, it transfers less energy to the black hole. The black hole is massive. But it's still in interaction with its environment. The heavy mass can also slow down. The speed of the black hole. 

"These 3D renderings of a direct-horizon collapsar with an initially weak magnetic field illustrate the system’s evolution. Early in the collapse, accretion disk winds unbind much of the stellar envelope, reducing the mass available for accretion onto the black hole. Eventually, a one-sided jet emerges from the region just outside the black hole, spinning down the black hole and expelling the remaining stellar material. Credit: Ore Gottleib/Simons Foundation" (ScitechDaily, Scientists Finally Explain Mysterious “Impossible” Merger of Two Massive Black Holes)

“Inferred orbits of 6 stars around the supermassive black hole Sagittarius A* at the Milky Way's center”. (Wikipedia, Sagittarius A* cluster)

When a black hole slows, it must realease its energy. And in that moment, it sends gamma or gravitational waves. Many times. Black holes are mentioned as the extreme gravitational objects. In those cases, the interactions are simplified. Black hole’s halo. And its relativistic jets are the highest-energy phenomena. In the universe. That plasma-halo. Also transmits energy out from the black hole. This means that. The black holes are, anyway. A little bit like other stars. 

In modern research, black holes are not as devastating as researchers believed. Research about the Sagittarius A*, (Sgr* A) the supermassive black hole in the center of the milky way gives an information that there are also objects in stable trajectories around the Sgr*A. Many of those objects are very hot stars. That means those stars can probably push material from around them. That causes the effect. That's the matter. That which falls into the black hole cannot affect the star. When an object falls. To a black hole, gravity pulls fields that make objects travel with it. But also things. Like gas and other particles push those objects into the black hole. 

The plasma whirls around the black hole, acting like a generator. That forms an extremely powerful magnetic field. And when a black hole pushes and pulls matter. All its wave interactions and plasma interactions affect objects around it. Things like gamma-ray and X-ray radiation are high-energy short-wave radiation that tunnels through the plasma. Also, things like neutrinos can tunnel through those fields and other objects. 

https://www.aanda.org/articles/aa/abs/2024/10/aa50571-24/aa50571-24.html

https://scitechdaily.com/scientists-finally-explain-mysterious-impossible-merger-of-two-massive-black-holes/

https://en.wikipedia.org/wiki/Sagittarius_A*

https://en.wikipedia.org/wiki/Sagittarius_A*_cluster