Black holes and gravitational radiation.

"Two colossal black holes slammed together, forming a 225-solar-mass behemoth so extreme it shouldn’t exist under current theories. Credit: SciTechDaily.com" (Cosmic Heavyweights Collide – LIGO Detects Largest, Fastest-Spinning Black Holes Yet)

Spinning black holes send gravitational waves. This means the black hole’s spin makes it bind energy into it. Or in other words, a black hole collects energy from around it and then turns it into kinetic energy. Theoretically, gravitational waves can form in particles that are just at the edge of the event horizon. 

The model is taken from the centripetal force. When some object starts to spin very fast, that movement pulls energy out from its core to the object’s shell. When spin turns fast enough, energy that travels from the object’s core into its shell breaks that object. In normal cases, atoms in those objects act like antennas. 

And they conduct energy out of the object. In the case of black holes, the gravitational field and interaction around it are so massive and powerful. That ultimate energy field around black holes is so powerful that the energy that comes from black holes will not pass through the material disk easily. The black hole’s interaction is very strong. It pulls material and wave movement from such a large area that the black hole cannot break the whirl around it. Gravitation forms when the gravitational center binds quantum fields into it. 

Sometimes a black hole is separated from its material disk. And that makes it possible that gravitational waves can escape from its event horizon. That happens when a black hole pulls an extraordinarily massive object inside it. When that material and energy boost ends, the black hole sends its extra energy into the space around it. That is one model of the black hole and its ultimate interaction. 

But then we can return to the hollow ball model. Or, rather, saying a spinning hollow ball model where the fast spinning ball pulls energy into it. That means the hollow ball’s shell turns energy around it into its structure. The ball also pulls fields from inside it into the ball’s shell. Or, actually, energy flow always travels to the lower energy side. That means that if the space outside the ball is at zero energy level. That spinning ball can create the energy of a false vacuum. And when that false vacuum falls, it can collect a lot of energy and material into the same point. 

When we think about models. Some so-called dark dwarfs collect dark matter around them, and then collisions between those dark matter particles or weakly interacting massive particles, WIMPs. The annihilation or collisions of those packed particles can cause a situation where dark energy rises so high that the dark dwarf can shine because of those dark matter interactions. When those impacts happen often enough, that thing causes a situation where dark energy interaction with material turns strong enough that it causes visible material to shine.

We must realize that there can be a similar interaction between dark matter and visible material that is much stronger around black holes. There is a possibility that the dark energy that can form in that interaction can push all other interactions, or at least electromagnetic interactions, away from the black hole. That can cause the footstep at the front of the particle.

Normally, when a particle faces electromagnetic radiation, that radiation or wave movement makes a shadow behind that particle. The electromagnetic radiation pushes particles into that shadow. 

That means the electromagnetic shadow that pulls particles out from the radiation center turns into a higher energy level than the area at the front of the particle. That thing makes the pulling effect so strong that the particle cannot escape from it. 

The particle sends a photon at the front of it. Or the photon that forms at the back of the particle turns so high energy that it forms the shadow or channel at the front of the particle. And that thing causes the particle to start to fall into the black hole. It’s possible that around normal gravity centers, only the field transports the particle. But when the particle comes closer to the black hole, there is something that causes the shadow to move in front of the particle. That shadow or quantum low pressure will raise the force of gravity. 

https://scitechdaily.com/cosmic-heavyweights-collide-ligo-detects-largest-fastest-spinning-black-holes-yet/

Cold material clouds near the center of the Milky Way can open new paths to cosmology and physics.

"High-resolution observations of the Milky Way’s Fermi bubbles have revealed dense, cold hydrogen clouds embedded within a superheated outflow, indicating that these colossal structures formed in a rapid, recent event. Credit: Stock" (ScitechDaily, “Impossible” Cold Clouds Discovered in Milky Way’s Heart Challenge Astronomical Theories)

New observations about cold material clouds near the Milky Way’s center are challenging astronomical theories. Or maybe they tell more about conditions in those extreme areas than anybody expected. The Milky Way center is a very high-energy area. That means the material should be hot near Sagittarius A. When researchers find something very cold near that supermassive black hole there is a possibility that something simply pulls or pushes energy through that material. 

If things like quarks or something similar small, weakly interacting particles travel through material that thing can cause the effect that those neutrinos, etc. will transport energy out from that material. So something acts like a thermal pump. 

And there is a small possibility that dark energy is the thing that turns those material clouds into cold. If we think about the cases of dark dwarf stars near the center of the Milky Way. Collect dark matter and make them impact or annihilate, those particles can send so much dark energy that it pushes visible energy out from those cold material clouds. 

"An artist’s depiction of the relative sizes of the sun, a low mass star, a brown dwarf, Jupiter, and the Earth. Sizes are to scale, but distances are not. Credit: Jupiter: NASA, ESA, and A. Simon (NASA, GSFC). Sun and Low-Mass Star: NASA, SDO. Brown Dwarf: NASA, ESA, and JPL-Caltech. Earth: NASA. Infographic: NASA and E. Wheatley (STScI)" (Phys.org, Dark matter could create dark dwarfs at the center of the Milky Way)

The dark dwarf can collect so much dark matter, that the impacts of dark matter. Or, weakly interacting massive particles, WIMPs happen so often that they send so much dark energy that it creates visible interaction between dark and visible material. If that is true of the dark matter particles, WIMPs’ impacts are the source of dark energy. And maybe that thing can change our view of dark matter and dark energy. 

Dark matter interaction through gravity is a well-known thing. That means gravity centers pack dark matter around them. The gravity centers like Sgr A* are the ultimate objects in the universe. That kind of ultimate gravity center can collect and pack dark matter into such a dense form that impacts between those particles happen so often, and they can create visible interaction with other objects and particles. This means that dark matter and dark energy also have some electromagnetic-style interactions with visible material. The only known interaction is gravitational. 

But the “shine” of visible material covers that interaction with it. Things like dark dwarfs are very dense objects that can collect the dark matter and its radiation into them. And there is a possibility that there is a dark dwarf near the center of the Milky Way that gets its energy from dark matter. The dark dwarf is the massive object that formed when a brown dwarf used up its fuel. This dark dwarf location near Sgr A* is also special. The dark dwarf pulls dark matter around it the another dark matter flow that Sgr A* pulls to it impacts that dark matter whirl. That causes impacts or even annihilation that turns dark matter very hot. 

And the ultimate high energy that Sgr A* sends can also interact with those WIMP particles. The model goes like this: the dark matter particles, hypothetical WIMPs, are so small that they send so short-wave radiation that we have no ability to observe that radiation. That means the dark energy can be a wave movement outside the gamma-rays. And if that is true it can open new visions for cosmology and space research. 

https://nasaspacenews.com/2025/07/dark-dwarfs-the-cosmic-clue-that-could-reveal-dark-matters-secrets/

https://phys.org/news/2025-07-dark-dwarfs-center-milky.html

https://scitechdaily.com/impossible-cold-clouds-discovered-in-milky-ways-heart-challenge-astronomical-theories/