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*

A strange glow in the center of the Milky Way can offer our first glimpse of dark matter.

"The galactic center gamma-ray excess recorded by Fermi. (NASA Goddard/A. Mellinger (Central Michigan Univ.) and T. Linden (Univ. of Chicago))" (Sciencealert.com, Mysterious Glow Detected in Space Could Be Dark Matter Destroying Itself)

There is a possibility that the strange gamma-ray glow in the Milky Way forms when dark matter destroys itself. That means that dark matter can send high-energy effects in the matter around it. The glow can form when dark matter particles impact each other. There is a possibility that those dark matter particles annihilate and send some kind of radiation. That radiation can affect. It's the environment directly. Or the dark matter particles, or components, can create a fast-falling false vacuum in their impact point. In that case. 

The fast-falling vacuum forms a situation. Where those quantum fields impact each other. If we think that dark matter can be some kind of false vacuum, and if there can be some kind of wave that comes through that false vacuum, when that wave impacts the opposite wall of that false vacuum. That sends quantum noise through that field. 

Maybe that thing sends energy to particles around that thing, and then those particles start to send gamma-rays. It’s possible that things like gluons are behind those gamma-rays. Gluon is a very small, little-known particle that transmits strong nuclear interaction. When a gluon receives. Some kind of energy load. It releases that extra energy immediately. Or if some kind of energy wave impacts the gluon, or some disturbance in the quantum gravity field affects the gluon and moves it out from its trajectory. That can cause a situation where the gluon sends gamma rays. 

Gamma-rays are the highest-energy and shortest-wavelength form of known radiation. All particles that send or reflect wave movement send those waves with their wavelengths, which are the same as the transmitting particle size. The thing that can cause the hypothetical wobble in the gluon trajectory can also be the gravitational wave. That can form in dark matter interactions. The interaction can be some kind of decay in dark matter. Or it can form in impacts. Or collisions between dark matter particles. 

https://www.sciencealert.com/mysterious-glow-detected-in-space-could-be-dark-matter-destroying-itself

https://scitechdaily.com/a-strange-glow-in-the-milky-way-may-be-our-first-glimpse-of-dark-matter/

Researchers made black holes in the laboratory, and suddenly, it started to glow.

Simulation of a warped and spinning black hole. (Yukterez/Wikimedia Commons, CC BY-SA 4.0)(Science alert/Scientists Created a Black Hole in The Lab, And Then It Started to Glow)

The new observation can make the fundamental step to research black holes. Scientists created a virtual black hole in the laboratory, and then it started to glow. How that virtual black hole is made is explained in ScieceAlert. com. The article on that topic is below this text. 

Researchers used chains of one-dimensional atoms. And then the electrons in that chain started to hop between atoms.  That forms a similar effect to the black hole. And that phenomenon can use to detect Hawking's radiation. 

"A one-dimensional chain of atoms served as a path for electrons to 'hop' from one position to another. By tuning the ease with which this hopping can occur, the physicists could cause certain properties to vanish, effectively creating a kind of event horizon that interfered with the wave-like nature of the electrons". (ScienceAlert.com/Scientists Created a Black Hole in The Lab, And Then It Started to Glow)

The thing that makes the virtual black holes in that atom chain is that those atoms are in a minimum energy state. And when the electron jumps away from the atom it creates a hole that acts like a virtual black hole. 

Sometimes researchers say that black holes are massive material holes. The gravitational effect of those objects is impressive and not even light can escape from them. 

But there is the possibility to get information about the black holes by putting the photon ring or some other rings of electromagnetic waves oscillate with the same frequency as the black hole. 

When light and other materials are falling into a black hole. They are following a spiral-shaped trajectory. And if there is possible to create a photon ring that size is precisely the same. With the most in part of the transition disk before it falls into the black hole. If there is possible to create a photon ring that size is similar to the black hole the black hole's radiation could oscillate that photon ring. And that can make it possible to research the eruptions of the black hole. 

https://www.sciencealert.com/scientists-created-a-black-hole-in-the-lab-and-then-it-started-to-glow