Why are black holes twinkling?

The mystery of black holes is why they twinkle. Why black holes don't send gravitational waves all the time? That is one of the most interesting things about black holes. Black holes are extreme objects in the universe. And they should be stable. But there are moments when they send stronger gravitational waves than otherwise. 

There is the possibility that those twinkles are the reason for the case that black holes are sometimes in an electromagnetic vacuum. And the reason for that is that black hole pulls mass too fast. That thing causes an effect that black hole starts to send that radiation. 

But there is the possibility that there are particle pairs in the black hole. Those particle pairs form warp channels. Gravitational waves travel in those channels. 

In that model, there is the possibility that the gravitational waves that we can observe are forming when those particle pairs are orbiting each other. Those particle pairs act as the antennas that send gravitational pikes outside the black hole. 

Or maybe there is some kind of WARP bubbles or points where gravitational strings inside the black hole are not connecting. That makes the gravitational vacuum points in the black hole. And those vacuum points are causing a situation that the gravitational waves in the black hole are not following spiral tracks.

When those gravitational waves are touching each other in the black hole. That can cause the situation. There the Schwinger effect forms particle pairs. That means those particle pairs could be mysterious gravitons. If there is a gravitational tornado inside the black hole. 

The other gravitational waves are giving radiation emission to that tornado. That gives more power to that standing wave. That could explain why the black hole could send radiation pikes from its poles. The question is what is the point, where those waves are leaving? Is the source of the radiation that a black hole sends behind or at the front of the event horizon. 

The X- and gamma-ray impulses in the black hole's poles are causing questions about the speed of light in the black hole. Do researchers also hope that black holes give answers for the things like how many dimensions there are? Are there three in time and one in material? 

And maybe black holes are telling someday what is the form of time. Is time for some kind of wave movement that takes bites from the superstrings that are forming material? Or is time only part of the material? 

https://www.sciencealert.com/astronomers-studied-more-than-5000-black-holes-to-figure-out-why-they-twinkle

https://artificialintelligenceandindividuals.blogspot.com/

The gravitational waves and antigravitation.

Black holes are sending gravitational waves. And one of the reasons that can make this kind of thing possible is that a black hole radiates gravitational radiation away and pulls everything else from it. So the black hole itself would involve a gravitational vacuum. 

In some other explanation for gravitational waves, the core structure of a black hole called singularity acts like a gravitational sling. That gravitational sling sends the wave movement moves out from the black hole's center. 

When that wave movement hits the wave that falls in the Black Hole's center. That causes gravitational waves. That shakes the event horizon. When the power of gravitational waves rises when they impact with another wave that causes a situation that the gravitational waves could escape from the black hole. 

The big thing in gravitation is that it is wave movement. So we could say that gravitation is radiation. Or we can say that gravitation is like a magnetic field but different frequency. So in this model, we can say that the gravitation can form things that are like Hopfions or skyrmions. 

The idea is that when a particle reaches a certain energy level it turns into a black hole. Or it jumps out from our universe. The fact is that theoretically, things like skyrmions can get so high energy levels that they form a black hole. In that case, the black hole is like a wheel. The wheel-shaped black hole that forms around the black hole can rip the inner black hole into pieces. 

The ring-shaped ultra-powerful, the standing gravitational wave can make the real antigravitational possible. The idea is that the ring-shaped standing gravitational waves can make the ring-shaped event horizon that can pull other gravitational waves from inside it. The problem is that how exactly the system can control that gravitational wave is a mystery. 

Theoretically is possible to make a ball-shaped black hole. The black hole's event horizon can be hollow. This thing requires that the system can form a ball-shaped standing gravitational wave. And then it must just increase the power of that gravitational field. 

When we think about gravitational waves as radiation there is theoretically possible to make a gravitational hologram. The hypothetical gravitational hologram makes it possible to create that hollow gravitational field. 

Gravitational waves and antigravitation are one of the most interesting things in physics. The gravitational waves are open to real antigravitation, as we all know. Gravitation is like all other electromagnetic radiation. It can scatter, it can reflect, and it can form similar things like skyrmions or options. 

In one of the ideas gravitational waves that are leaving the central point of the object can form the zero gravitational point. The idea is that if gravitational waves are leaving from the center of the object very often or otherwise saying: gravitational waves have a high frequency they can deny that the gravitational waves cannot fill the area. 

The idea is that the gravitational skyrmion surrounds the point where the antigravitation will form. And then that thing pulls gravitational waves in the middle of that ring. That thing interacts with that gravitational skyrmion that sends gravitational waves around it. 

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

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

https://artificialintelligenceandindividuals.blogspot.com/

Gravitational waves or ripples in spacetime could point to the place of the Big Bang.

The point where the Big Bang happened should be in the middle of the universe. But the fact is that is the exact point. Where the Big Bang happened could also be moved. Or the universe around that point is moved asymmetrically. The idea is that some remnant of the Big Bang is a supermassive black hole. 

And that remnant involves information about the Big Bang itself. But the problem is that we should find the first black hole that formed just after the Big Bang. That is a very difficult thing to do in real life. All black holes look similar. 

So researchers should find the right black hole. And then they could listen to the echoes from the universe's first moments. The thing is that the first gravitational waves. That left from the Big Bang traveling the outside the edge of the universe. The shockwave that formed in the Big Bang can call, as the "edge of the universe". When we are thinking about the form of the most outpoint of the universe there should be a small density to another point in the universe. 

Because the front of the material is traveling the shockwave there is a gravitational wave. That thing makes the edge of the universe a little bit thicker than the material behind that wave. But there is the possibility that we could see the remnant of the Big Bang by using another method.  There is a possibility. 

That the same part of the radiation that the source is in the Big Bang jumps inside the universe. Black holes can turn the direction of gravitational waves. But there is a possibility that the black holes were far behind the gravitational waves. and even if gravitational radiation jumps between black holes we should have some method to separate those gravitational waves from disturbing gravitational waves, that are released later. The problem with this kind of research. is how to find the right gravitational waves. 

https://artificialintelligenceandindividuals.blogspot.com/

The gravitational waves from black holes give information about the gravitation's nature.

Could a lonely black hole form gravitational waves?

Could a lonely black hole form gravitational waves? When two black holes are orbiting each other their gravitational fields are disturbing each other. Another black hole will aim the gravitational waves in a certain direction. 

But when we are looking at the "lonely black holes" there is the possibility that intensive energy around them transforms particles around them into black holes. Also, some "lonely black" holes are binary systems. 

The reason why observing those smaller black holes is difficult, is that they are so small. And they exist only for a small moment. Those theoretical small black holes are forming near the event horizon or the point where escaping velocity reaches the speed of light of the central black hole. 

And then they fall into the larger black hole. These extremely small black holes orbit the larger black hole. Or otherways saying. The event horizons of black holes are connected. 

The thing is that also the small or quantum size black holes have event horizons. The size of the black hole doesn't matter. 

All black holes act the same way. They are like antennas that transfer gravitational radiation in one direction. 

If that case is true that effect can form a wormhole or Einstein-Rose bridge between that quantum-size and larger black hole. And in that case, there is the possibility that the smaller black hole acts as an antenna that aims gravitational waves away from the black hole. 

 Black holes are an extreme phenomenon. And in these kinds of cases, we should be very accurate. When we research things. That happens near that kind of object.

 Even if we are talking about errors less than a nanometer. Those errors can have a greater effect than we think if we are talking about black holes and their interactions. 

There are possible places where the black hole's gravitational waves can form. The place can be inside the event horizon or the point where escaping velocity reaches the speed of light. The gravitational waves are expected. To give a tip on how to make the opposite gravitation or antigravitation. 

So if the source of the gravitational waves is less than a nanometer from the event horizon. That means their source is outside the black hole. In this case, gravitational waves are coming outside the black hole. 

1) The source of those gravitational waves is inside a black hole.

2) The source of those mysterious gravitational waves may be the dark matter that orbits the black hole. 

4) The wave or quake in the event horizon makes it possible that the event horizon's place is changing. And then, the superstring or wave movement can flee from the black hole. 

5) In some theories, gravitational waves are the reflection. When gravitational waves that fall into the black hole impact with standing gravitational waves that thing causes reflection. Or is it possible that black holes cannot pull gravitational waves inside them? 

Could the extremely strong gravitational field reflect the gravitational waves from a black hole? The reason for that is the frequency of gravitational waves is always the same. And if another gravitational field is stronger that reflects other outcoming gravitational waves away. That means that black holes could pull only material and other radiation in them. 

But gravitational fields are reflecting away from them. The reason why that is possible is found in quantum theories. Energy always travels from the higher to the lower level. So black hole's gravitational field is so strong that it can cause a situation where gravitational waves are traveling in opposite directions than other radiation. 

And if radiation that has a lower energy level but the same frequency impacts with stronger radiation that causes reflection. The case where wave movement fronts with the same frequency impacts. Wave movement continues in a direction where wave movement with a higher energy level travels. And gravitation is similar wave movement to all other wave movements. 

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Antigravitation can be the reflection of gravitational waves. 

The place of those standing gravitational waves can be in the nucleus of the black hole or around the event horizon. If there is a standing gravitational wave around the black hole the maser-effect that is forming when intensive energy impacts standing gravitational waves. 

That means reflecting gravitational waves can form anti-gravitation. The idea is that impacting gravitational waves can form a wheel-shaped standing gravitational wave that denies gravitational waves flow inside it. 

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Could the source of gravitational waves of a lonely black hole be the dark matter that orbits a black hole? 

There is a possibility that intensive energy is near black holes interacting with dark matter that orbits black holes. Near the event horizon, the intensive energy interacts with packed wave motion, and that packed dark matter are forming gravitational waves. 

But then we must realize that there is also the possibility that gravitational waves are forming in black holes. Or around black holes where standing gravitational waves are reflecting from that donut-shaped gravitational effect that could orbit the black hole at the point of the event horizon. 

And they are escaping gravitational waves that the source is inside the black hole. There is a possibility that deep inside the black hole is forming a static high-energy gravitational whirl in the middle of the black hole. 

The energy of that hypothetical structure in the black hole is in gravitational form. So because that structure is forming standing gravitational waves it can push the impacting gravitational waves back. And then those gravitational waves can travel out of the black hole. 

In some other models, the gravitational waves are escaping from the black hole because there is forming a quantum-size black hole near the event horizon. The intensive energy can turn particles into black holes before they are traveling through the event horizon. 

In that case, the miniature black hole can form the point where gravitation is stronger than just behind the main black hole's event horizon. And then there is a forming situation where the smaller black hole can steal gravitational string from the main black hole. 

In the last model, the event horizon of the black hole just shakes. When the wave movement and material are orbiting the black hole's nucleus their speed and energy level rise to a very high level. That thing makes it possible. That material or wave movement that orbits the black hole's nucleus just behind the event horizon can flee to space. 

https://nautil.us/gravitational-waves-continue-to-astound-238489/

https://astronomyandtechnology.blogspot.com/

The expansion of black holes. And, the ultimate form of matter. (Quantum rain II)

 The expansion of black holes. And, the ultimate form of matter. (Quantum rain II)

The expansion of black holes means that the size of black holes expands. But their mass is not growing. And that means something inside the black hole pushes the event horizon away from its nucleus. So that means that when a black hole pulls wave motion and particles inside it, that radiation reflects in the middle of the black hole. 

That reflection forms the gravitational shine of a black hole. That shine is the gravitational waves of black holes. And especially lone black holes. So are there some standing gravitational waves or gravitational skyrmions? That are forming whisk-looking structures around the black hole. 

Those skyrmions are the gravitational waves that deny the side-coming gravitational waves that go through them. But when that skyrmion turns away from that gravitational wave motion that travels out from the black hole. It lets gravitational waves travel through it. 

There is a possibility. If the wave motion will travel near the black hole's nucleus it can get enough energy. Back to the universe through the event horizon. That could explain Hawking radiation. If wave motion comes out from the black hole it must release its energy. And maybe that is the explanation for Hawking's radiation.  But the problem is how to prove that thing. 

Hawking's radiation is a mystery. Maybe gravitational waves that come through the event horizon send some other radiation. If a gravitational wave or gravitational string is precisely at the point of the event horizon.

That gravitational string conducts energy out from the black hole. And that energy is the gravitation. When black holes are rotating. Their rotational speed is almost the speed of light. 

That rotational speed creates a massive centripetal force. And that centripetal force pushes gravitational waves out of the black hole. 

The "string" is an extremely thin, energy or wave motion ray. And the QCD (Quantum Chromodynamics) or Schwinger effect means that because particles can turn to wave motion and otherways wave motion can turn to particles. Everything in the universe, including you and me, are wave motion. 

So the thing is that gravitational waves whose energy level is high enough can form a gravitational tornado inside the black hole. And if the energy level of that gravitational tornado is high enough that thing causes the effect where the gravitational field at the poles of the black hole is weaker than other places in the event horizon. 

Particle by particle

"Latent energy (quantum fluctuations) in the fabric of space-time may cause pairs of virtual particles to pop into existence throughout the universe. If such a pair is created right on the event horizon, or the boundary, of a black hole, one particle may fall in while the other barely escapes, taking with it a minuscule amount of energy and therefore mass from the black hole. This theoretical phenomenon is known as Hawking radiation" (https://astronomy.com/magazine/news/2021/02/the-beginning-to-the-end-of-the-universe-how-black-holes-die)

If we think that gravitational interaction is described in the last text "The quantum rain". 

That means there is a standing gravitational wave in the middle of the black hole. That thing transports energy out from the black hole in the form called anti-gravitation. In that model, the anti-gravitation is the reflecting gravitational waves that the standing gravitational wave motion will transport out from the black hole. 

Why in that case the gravitational waves and Hawking radiation can escape from the black hole. The internal structure of a black hole is like an onion. The gravitation acts inside that extremely strong gravitational field like in all other particles. Except the light cannot escape from that object. 

The point where escaping velocity of the black hole reaches the speed of light is called the event horizon. But inside the black hole, the escaping velocity turns stronger and stronger. That means the escaping velocity rises inside that super-heavy object. So the escaping velocity rises to levels 2X, 3X, and 4X... of the speed of light. 

But how can this happen? When the particle or wave motion travels to the gravitational center the speed of the particle or wave motion should slow. In this text, I will call wave motion and particles together as information. 

There is the lower mass of a black hole (or some other ball-shaped gravitational mas center) when information travels inside it. 

So there is less mass left at the front of the information that travels in the black hole when that information travels deeper in that structure. That means when information travels through the black hole the follow-up information pushes the forward traveling information to the center of the black hole. 

And there those superstrings or pieces of wave motion called information impact each other. Those fields can reflect from the nucleus of the black hole. Black holes are the extremely powerful gravitational center. But there is a small point where is no gravitation inside that object.  

With the fast-rotating gravitational field from the 2D structure inside a black hole, there is no gravitation and extremely powerful gravitational energy. So that energy reflects gravitational waves into that structure. That thing forms a gravitational tornado that pushes the other gravitational waves out from it. That thing would form the gamma- or X-ray pike out from the black hole. 

So the internal gravitational tornado of black holes shines. The gravitational shine pushes the event horizon away from black holes. That gravitational shine is the source of the gravitational waves of black holes. 

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

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

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

Images: https://astronomy.com/magazine/news/2021/02/the-beginning-to-the-end-of-the-universe-how-black-holes-die

The quantum rain.

Could this be the key to gravitational interaction? The image above this text portrays a neutron star. That image could also portray elementary particles like quarks. There is the possibility that the gravitational field is similar to a magnetic field. 

So the pulling side of the gravitational wave motion or gravitational effect that a fast-rotating particle pulls inside is the particle is only far larger than the pushing gravitational wave or antigravitational wave that travels out from the particle. The idea is that a whisk-looking quantum structure turns the quantum field to gravitation. 

The term quantum rain means that particles' energy level decreases. The reason for that is cosmic inflation. And all particles travel into an energy level that is minimum in our universe. That means the material travels to a two-dimensional form. 

The micro- or quantum gravitation can tell why gravitation is so weak. But the effect of the gravitation is long-range. The reason for quantum gravitation could be in the form of particles. 

If each elementary particle is like a whisk-looking hollow object where extremely small skyrmions or quantum strings are forming a series of hoops. That is orbiting the area where the energy level is very low. 

And that means. There is lots of energy that travels out of those skyrmions. But gravitation is forming when energy travels through holes between the skyrmions. So that means the internal structure of each particle is cold. 

Same way when icy rain is cold because energy travels to those water droplets gravitation waves travel in and out from material or particles. The shine of quantum skyrmions pushes other wave motions out from those skyrmions. 

1) Elementary particle

2) Laser-ray-looking structure

3) Energy

The elementary particles are acting like small thermal pumps that pull quantum fields through the core of the elementary particles. That energy will travel inside a quark or boson and then it forms the laser-ray-looking structure that transports energy out from that 

So if particles are quantum skyrmions that are rotating extremely fast speed.  That can tell why particles are pulling each other together.  

When those skyrmions of whisk-looking structure impact with quantum fields. They act like antennas. The skyrmions take that energy impact into their structure. Then that skyrmion or superstring acts like spring. It conducts most of the energy to the poles of that structure. 

Above: The Standard Model of elementary particles. 

But a little part of the energy travels inside the elementary particle. That energy forms the axle- or laser-ray-looking structure. When energy travels in that stick-looking structure. Inside the elementary particle. It pulls energy out from the particle's internal structure. 

The energy that travels away from the poles of the quark and that energy stick would be the anti-gravitation or pushing gravitation. The impact area of the energy stick that comes out from the particles would be very small if we want to compare that area with the pulling effect of that wave motion. 

That structure works like a small pump that moves energy out from the quantum field around the particle. So the energy that travels inside that small thermal pump is the thing, called gravitation. Why gravitation interacts over long distances? And why it doesn't have a pushing form? Maybe, the area of pushing gravitation is so small that pulling gravitation covers it. 

The reason for that is all particles act as an entirety. The pulling side has a larger layer than the pushing side. So that thing means that the larger area of the pulling gravitational effect causes. That the pulling effect is more dominating than the pushing effect because the pulling effect affects large areas in comparison with the pushing gravitational effect. 

https://www.businessinsider.com/standard-model-physics-master-equation-2017-6?r=US&IR=T

https://theconversation.com/au/topics/neutron-stars-1325

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

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

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