Dark matter and gravitons are the biggest mysteries in the universe.

 Dark matter and gravitons are the biggest mysteries in the universe. 

Could an extremely small primordial black hole that is smaller than gluon be the source of gravitational radiation and gravitational waves? 

If a graviton is an extremely small primordial black hole. That explains dark energy. The atom-size or smaller black holes can be stable. If they get enough energy. Those small black holes interact similar way as the larger black holes. And there are energy beams also in those small black hole's poles. The energy that leaves those poles could be the thing called dark energy. 

If those small black holes are between quarks and gluons they could send radiation into both particles. The pushing radiation that comes out from primordial black holes would impact into quark and gluon. There those particles will take that energy into their quantum field. 

When those quarks and gluons send radiation that they get from that primordial black hole back there is forming a channel where a larger energy beam covers smaller but higher energy beam. So that primordial back hole would be in the tunnel. Where it sends radiation into that quark and gluon. Because gluon is smaller than quark lots of radiation that comes from quarks travels through the gluon. 

Can dark matter made of gravitons? The answer is that nobody knows. The graviton is a hypothetical particle. That could be the link between the fourth- and the third dimension. 

The fourth dimension is the energy level where 3D material cannot interact with 4D material. So graviton could be the hole between energy levels or spaces. In some theories hypothetical graviton is an extremely small black hole, that brings energy from a higher dimension. 

A black hole is an object between 4D and 3D worlds. And graviton would be the extremely small black hole. But in some other models, the graviton could be a whirl- or spiral-looking gravitational field. So the graviton would be a virtual particle. 

The idea is this: a black hole pulls material and radiation in it. During that process, the black hole loads that material with a very high energy level. Then there is material that falls from the fourth dimension. And when those two materials are impacting the energy travels from higher energy material into lower energy particles. And that energy flow causes gravitational radiation. 

The thing is that dark matter will not probably form purely gravitons. But dark matter involves an element that makes gravitation interact also between visible and dark matter. So there could be gravitons also in dark matter. That gravitational interaction tells that there is something that causes the gravitational effect, but that thing doesn't interact in any other way. 

https://bigthink.com/starts-with-a-bang/dark-matter-gravitons/

https://scitechdaily.com/understanding-the-mysteries-of-the-cosmos-new-clues-to-dark-matter-from-primordial-black-holes/

https://scitechdaily.com/primordial-black-holes-the-size-of-an-atom-what-new-experimental-evidence-suggests/

Are the mysterious gravitons and dark matter the yet unknown states of well-known particles?

There is the possibility that dark energy is multiple wavelengths of electromagnetic radiation which has many sources. Those sources can be Higgs bosons, free quarks, and gluons. The quantum channels or quantum tornadoes can also send radiation. 

Also, there is the possibility that the supermassive black holes are sending radiation whose wavelength is extremely low. Also, the mesons are sending some kind of radiation when they are splitting. 

When we are looking at the image of protons and neutrons. We can see also gluons. Gluons are transporter particles of a strong nuclear force. The gluons are traveling in the protons and neutrons between quarks. And behind those particles is the channel. When those subatomic particles are jumping between quarks. They are forming the vacuum behind them. But also those particles are sending the electromagnetic impact wave. 

That impact wave is similar to the pressure wall the objects send when they travel in the air. But the electromagnetic or quantum cone is made of electromagnetic wave movement or quantum field.

So the thing is that there is the possibility that the source of the dark energy is the dark matter. That term means that dark matter is the material whose only known interaction with material is gravitation. But there is the possibility that dark matter is the free quarks and gluons. When quarks and gluons are sending radiation the wavelength of that radiation is the same as the diameter of quarks and gluons. 

That means we have difficulties detecting that radiation. Also, short-living particles like Higgs bosons are sending radiation with their unique wavelength. That means that there is the possibility that dark matter is well-known, but maybe short-living particles. The thing is that the quantum channels behind the gluons are also sending wave movement. The reason why we cannot observe dark energy is that. We don't know what particle sends that wave movement. 

The same thing is the graviton. The mysterious hypothetical gravitation transporter particle. There is the possibility that it is some kind of gluon. Or maybe it's the so-called free gluon. Normally the gluons exist only in the protons and neutrons. 

There they transport the strong nuclear force. But there is the possibility that somewhere in the universe is free gluons. 

Things like Higgs bosons are sending wave movement during their short lifetime. When that particle is turning to wave movement the wave movement that it sends remains. 

There is another theory of the origin of dark energy. And that thing is that the origin of that mysterious wave movement is in the small "quantum vacuums". Those miniature WARP bubbles are pulling wave movement through it. Even those bubbles are smaller than electrons. 

They act like other low-energy areas. Energy travels always from the higher energy level to the lower energy level. 

The wave movement travels through those bubbles and hits the quantum field at the other side of that bubble. That impact sends the radiation. And that means there is possible that this kind of phenomenon can also form dark energy. The quantum-size black holes are also curving the wave movement. And that causes the energy flow. Also, things like supermassive black holes are sending the radiation which wavelength is the size of their event horizon. 

So how does this connected with dark energy? Here I repeat the words from the begin of this text. There is the possibility that dark energy is multiple wavelengths of electromagnetic radiation which has many sources. 

Those sources can be Higgs bosons, free quarks, and gluons. The quantum channels or quantum tornadoes can also send radiation. Also, there is the possibility that the supermassive black holes are sending radiation whose wavelength is extremely low. Also, the mesons are sending some kind of radiation when they are splitting. 

Even if we don't know quark and gluon nebulas there is a possibility. That those nebulas are existing somewhere in the universe. Outside the supergroups of galaxies might be a state of matter that is existing only in extremely cold and stable conditions. There is the possibility. That there is a large mass of free quarks and gluons. If the distance of those particles is too high. That causes gluons cannot tie the quarks to one entirety. 

And that denies the forming of protons and neutrons. Maybe, those gluon and quark clouds exist only in the world where the disturbance and level of wave movement are minimal. And the distance of the particles is far higher than in our galaxy. Maybe James Webb-telescope gives answers for that kind of thing. 

https://thoughtsaboutsuperpositions.blogspot.com/

One of the weirdest particle in the universe: The quantum star

Picture 1

Kimmo Huosionmaa

In the universe is a star, so weird that it can almost make black holes look like boring. This star is so-called “grey hole” or quark star, what is the end of life of the star, what is too heavy to become the neutron star but too light to become a neutron star, when the nuclear reactions inside the star have been ended. In this star type the neutrons were crushed as the quarks, but the gravity is not strong enough to make the black hole. The photons can escape from this tiny piece surface, but the escaping speed is near the speed of the light, and that slows the photons very much.

This kind of star is smaller than the neutron star, and its gravity is more massive than neutron stars ever have. Those quark stars might look like small asteroids, and in some science fiction scenes, the spacecraft will make mistake and lands on that little star, what is mistakenly thought as the asteroid. The massive gravitation on that small star surface makes that object look like stoned, because the time on the surface of that object will slower, and there might be nuclear reactions on the quark stars surface.


Those reactions cause the reason for the gas and dust will fall in the surface of that star, and the massive gravitational field will start to press them down. And in this case, there will be high energy nuclear reactions on the surface of that star. In this scenario, the escaping speed from the surface of that star is 99% of speed of light, and in that case, those flares and things, what will happen on the surface of that piece looks like stoned, because the time will run slower on the surface of that star than in another universe.


The quark stars are the weirdest objects in the universe. And in some cases, that kind of star will get in the cosmic gas cloud, and then it will start symmetrically pull gas on its surface, and the result might be the blue giant, what is larger than our solar system. The pressure of the gas caused the massive gravity of the quark star, and that phenomenon will cause the massive energy production inside that massive star. The fallen material will grow the mass of quark star and sooner or later it will collapse as the black hole.

Sources: Picture 1 https://heasarc.gsfc.nasa.gov/Images/nicer/quark.jpg

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

https://crisisofdemocracticstates.blogspot.fi/