Showing posts with label interesting things. Show all posts
Showing posts with label interesting things. Show all posts

Saturday, August 6, 2022

How strong is strong nuclear force?



Image 1:)


Strong nuclear force holds 99% of the universe's mass. That means its strongest known interaction. And somebody has introduced that gravitation is strong interaction that leaks from the atoms. The strong interaction is an interaction between quarks and gluons.  

The strong interaction is the reason why the annihilation reaction is so powerful. And that reaction where antimatter faces material is the only known reaction where a strong nuclear force is released. But when we are thinking about the form of the baryons or baryonic hadrons we can focus on why two black holes orbit very close to each other and are sending gravitational waves. The origin of the gravitational waves could be in the gluon tunnels between the quark and gluon. 

The baryon or baryonic hadrons like proton and neutron are forming of three particles called quarks. Or, the most common baryons, protons, and neutrons consist of the quarks and gluons that transmit strong nuclear force between those quarks. When baryonic hadrons are spinning with extremely high speed that structure would act like the boom that throws the wave motion that travels through the quantum field of baryon away from it.

In the same way, the black holes that are orbiting each other are creating the energy bridge between them. So there is the possibility that there are gluon tunnels that are traveling between those black holes. 




Image 2:) Proton


When we are thinking about the mysterious graviton. Researchers could find that still hypothetical particle somewhere between gluon and quark. If we are thinking that the X-rays are coming from quarks and gamma rays come from gluons. That means the next particle in the atom's nucleus could be a graviton. 

Because gravitational waves existed. That means we can call that phenomenon gravitational radiation. Gravitational waves are wave motions like light. So when we are thinking about the spin of gravitational baryons the channel between quarks can throw that gravitational wave motion to the sides of the baryons. 

And maybe the gravitation or gravitational waves are at an extremely high energy level. But the radiation would not transmit energy to the particle. Or the thermal energy will transfer away from it immediately. There are two ways that things can happen. The first way is that gravitational radiation will travel over the particle without touching it. That forms an electromagnetic vacuum behind that particle. 

And the light quantum that the material sends will travel through that shadow. Or the pressure of gravitational radiation pushes energy through the particle. That means the energy flow from the backward of the material is higher than at the front of it. 

One of the reasons for that is the vaporization of the particle. That impacting gravitation radiation causes the asymmetry in the energy field of that particle. But the vaporization of material that is the reason for cosmic inflation means that the gravitation radiation turns stronger in the back of the particle. 


https://scitechdaily.com/the-strength-of-the-strong-force-accounting-for-99-of-the-ordinary-mass-in-the-universe/


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


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


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


Image 1:) https://scitechdaily.com/the-strength-of-the-strong-force-accounting-for-99-of-the-ordinary-mass-in-the-universe/


Image 2:) https://en.wikipedia.org/wiki/Proton


https://artificialintelligenceandindividuals.blogspot.com/


Sunday, December 26, 2021

The cold areas in the cosmic background are a mystery

 The cold areas in the cosmic microwave background are a mystery



Image 1:


The empty area in the cosmic background is visible in the WMAP image. There is also another similar area in the middle of the image. And those so-called "cold areas" (also known as "Bubble of nothingness" or empty bubbles" ) are things that are causing discussions.  Those areas are marked in image 2. 

The reason why that microwave image is not homogeneous is a mystery. There was something that caused shadow in the comic background. There is possible that black holes pulled radiation and material out from those areas. Theoretically, somewhere in the universe could be the black holes in which the event horizon can be larger than even galaxies. But the question is, where those black holes are?

Empty areas are the cold points in the cosmic microwave map. They are like shadows that some object left in the shine of the Big Bang. In some theories, those empty areas are formed because there was an impact on another universe.


Image 2: 


Or the supermassive black holes outside the universe would pull the matter from those points. The fact is that there should not be black holes out of the universe, because those black holes would vaporize. Image 3 shows the observable universe. As you see, the material and galaxies are like in ball-shaped form. And if the black hole is out of that material core, that thing can cause that it's invisible. 


x-x-x-x-x-x-x-x-x-x-x-x-x-x-x-x-x-x-x-x-x-x-x-x-x-x-x-x-x-x-x-x-x-x-x-x-x-x-x-x-x-x-x-x-x





Image 3:  "Artist's logarithmic scale conception of the observable universe with the Solar System at the center, inner and outer planets, Kuiper belt, Oort cloud, Alpha Centauri, Perseus Arm, Milky Way galaxy, Andromeda galaxy, nearby galaxies, Cosmic Web, Cosmic microwave radiation and the Big Bang on the edge" (Wikipedia Commons)


(The reason why Earth seems to be in the middle of the universe is that the observer would stay near it. So when the observer is making the ball-shaped image there is an optical trick. That the observer seems to be in the middle of the ball.)


(If an observer makes a ball-shaped image of the universe. That person seems to be in the middle of the universe. That is one of the most interesting optical illusions in the world.)


x-x-x-x-x-x-x-x-x-x-x-x-x-x-x-x-x-x-x-x-x-x-x-x-x-x-x-x-x-x-x-x-x-x-x-x-x-x-x-x-x-x



The fact is that the supermassive black hole must position only away from a material plate of the universe that it can remain unseen. The thing is that there are no holes in the empty areas in the universe. There is only less dense material or radiation in those cold spots. So the energy load of those points is smaller than other places in the universe. 

And that means something has pulled even radiation away from those points. The thing that made that thing could be a black hole. If the thing that created those cold spots is a black hole. That means the place of the black hole is ahead of the radiation. So the black hole must be born before the material and energy released to the universe during the Big Bang. 

The cosmic background image is introducing cosmic background that is like an echo from the Big Bang. The thing is that if somebody caused that the cold areas of the cosmic background are formed by something that causes shadow in that background. Another answer could be that there is some kind of asymmetry in the cosmic background. So was the Big Bang release some kind of flares during that case? 



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


Image 1: https://www.nasa.gov/feature/making-sense-of-the-big-bang-wilkinson-microwave-anisotropy-probe


Image 2: https://www.nasa.gov/feature/making-sense-of-the-big-bang-wilkinson-microwave-anisotropy-probe


Image 3: https://science.nasa.gov/observable-universe

Gluons and the strong nuclear interaction.

When we think about energy flow from the strongest to the weakest. Free energy. That causes an atom’s decay. It is formed. Or. Released in t...