Showing posts with label graviatational interaction. Show all posts
Showing posts with label graviatational interaction. Show all posts

Wednesday, February 9, 2022

Where do gravitational waves come from?



Gravitational waves are one form of energy. 


If the core of Earth rotates with the speed of light. Also, the Earth would send observable gravitational waves. The fact is all objects are sending those waves. But we can observe only the strongest of those gravitational waves. 

Black holes are good objects for researching those mysterious energy waves. The thing is that the event horizon of the black holes is orbiting its nucleus with the speed that is the speed of light. The reason why this cannot happen on Earth is that the gravitation of Earth is so weak. That Earth cannot keep its core in one piece. If the core would rotate its nucleus at the speed of light the centripetal force will destroy the core. 

The strength of the gravitational waves depends on the speed of the rotating object. The massive gravitation of black holes keeps the event horizon in a stable position. 

When the particles are orbiting the black hole with extremely high speed there is an electromagnetic vacuum behind them. The electromagnetic vacuum will pull energy around it. Energy always travels to the lower energy areas. 

And that means that those energy vacuums are pulling energy away from the black hole.  Particles can superposition through those vacuums. That superposition is not a long-term thing. 

When particles are forming superposition they are making the channel between them. So even if that situation is not taking a long time. That short time is long enough that energy can travel outside the black hole through those channels. 


Superpositioned quarks or gluons can transmit energy out from the black hole. 


When fast-rotating protons or neutrons are spinning fast enough the quarks inside them can turn into lines. And those quark lines will send energy pulses through the space. The spin of the proton is 1/2. Same as an electron. That means those particles are swinging and return to their original position. The quarks inside those particles are acting like a whip. When they are turning the end of that line sends the energy impulse. 

Those energy impulses are transmitted through quantum fields. And that thing is one of the reasons why spinning objects are sending radiation. The thing is that the electrons and protons are not rotating. They are turning about a half-round. And then they return to the original position. Those particles are removing their extra energy by sending wave movement. So they return to the basic energy level that is the same as the environment. 


So how does this thing connected to black holes?


When the particles like protons and neutrons are starting to fall into the black holes. They are following the spiral trajectory. The speed of those particles will rise to the speed of light and the massive gravitational effect will impact all particles that are orbiting the event horizon. Also at the point near the event horizon, the massive centripetal force is affecting those particles. That thing can cause the quarks are turning to lines. 

Or maybe the radiation will rip protons and neutrons into pieces. But anyway, the quark lines can fall into a black hole in the line. That means the closest quark will transmit energy to the most out quark. And when they are falling through the event horizon. There is a situation where only half of the quark is inside the event horizon. That moment would not stay long. But the time is enough that the radiation can transmit out from the black hole. 

The quarks can also be superpositioned. And those superpositioned particles can also send energy out from the black hole. The kinetic energy of the objects that are orbiting the event horizon is rising very high. And that causes superposition between them and particles that are outer tracks. That thing happens also with electrons, photons, and gluons that might be free near black holes. 

We are lucky that gluons would not take very much energy from outside. If that energy load is too high. That thing causes the gluons are jumping out from protons and neutrons. Or they just push energy away from the entirety. 


So where is a graviton? Is it the channel between some superpositioned particles? It should exist, but nobody has seen it yet. 


There is the possibility, that graviton is a well-known particle. That particle can be gluon or photon. The reason for that is that the graviton should be the thing that is involved in all material. Maybe the thing that gravitation affects photons is the key to solving the mystery of graviton. 

Splitting photons are the thing that makes some people suspect that photons are two or three particles. There is the possibility that there is a small WARP bubble or electromagnetic vacuum between photons. The electromagnetic vacuum acts like all other vacuums. The outcome radiation effect will push the particles together. 

The vacuum itself is not pulling anything. The outcoming pressure effect pushes objects together. And that is the reason why there is the possibility that gravitation is pushing not pulling effect. 

There is the possibility that inside that bubble is an extremely small particle. When the electromagnetic field faces that hypothetical particle, it would travel through it. That thing isolates that particle. The outcoming wave movement acts as a vacuum pump. 

So the electromagnetic vacuum is pulling photons together. Or in other versions wave movements are just impacting and forming two quantum electric arcs that are called photons. 


When some object orbits the gravitational center it pumps energy out from it. 


When we are thinking about the case that some particle is dropping in the black hole it would first go into the halo of that supermassive object. In that halo, the kinetic energy of that particle turns enormous. And that movement makes it high energetic. 

That thing causes the superposition between those particles and other similar particles. That superposition is transmitted energy out from the black hole. When some object is traveling at a speed that is high as the speed of light it causes the energy wave around it. But when some object is orbiting the gravitational center it will pump energy away from the system. 


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


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


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


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


https://thoughtsaboutsuperpositions.blogspot.com/

Sunday, October 31, 2021

The gravitational interaction between objects.



Is gravitation an independent force? Or is it "only" some "special" version of electromagnetism?


Have you ever thought about why gravitation has a long-distance effect? Why do the weakest of the fundamental interactions have long-range interaction? Why do other natural forces like strong-nuclear force have only a short-distance effect? 

And why the distance of the fundamental interaction increases when the scale of the effecting particles increases? The strong nuclear force affects only on the scale that is smaller than proton or neutron. But the electromagnetism effects also between the atomic groups. The difference between electromagnetism and gravitation is neutral. 

Gravitation is the non-polar force that effect is not depending on the poles of the particles. The electromagnetism pushes and pulls the objects depending are the same poles opposite together. The thing that causes the pulling is the electron flow and electromagnetic fields around the magnets. 

And then if gravitation is similar to electromagnetism. There is the possibility that its origin is in the quantum fields around the atom. The quantum field around the atom is like a series of flashes of lightning. So the quantum field can turn against other quantum fields and start to pull the particles to each other. 

If the origin of the gravitation is in quantum fields around that would explain why that force is so weak. And maybe gravitation is "only" the similar interaction with electromagnetism but its origin is in the electromagnetic bubble around the atom. Or maybe, it's the sum of all quantum fields of the atom. 


Is gravitation pulling or pushing force? 


The origin of the gravitation might be in the gluon interaction inside protons and neutrons. Those particles called gluons are moving between quarks. they are sending wave movement that makes the quantum fields around the atom oscillate. When the electromagnetic field jumps ahead. It pushes the EM or energy wave forward. And maybe that wave movement is the gravitation wave. 


When the quantum field around the atom pushes other quantum fields they are getting energy from that movement. And when the energy level of atoms increases their weight is also increasing. That causes interaction where the energy jumps from one quantum field to another. 

When the quantum field of the atom moves backward that causes the low energetic area near the atom. And that means energy will start to flow in that lower energetic area. 


That means the hypothetical graviton could be a virtual particle like an extremely small electromagnetic whirl like an extremely small skyrmion. In that theory, this virtual particle will just open the electromagnetic (or gravitational) channel between the particles or atoms. So is there some kind of weaker energy area between particles and that makes them come closer? 

When we are thinking about the distance of the effect of the gravitation. We might think that the size of the interaction causes that the gravitation will affect so long distances. The electromagnetic or quantum fields of atoms are much bigger than the size of electrons or quarks is. 

So if the origin of the gravitation is in the quantum fields of the atom. The surface area of the interactive area is very large if we want to compare that thing with the size of the interactive area of the strong nuclear force. And maybe the size of the interactive area of the force is larger the interaction will happen in long distances. 


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

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

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


Image:https://en.wikipedia.org/wiki/Fundamental_interaction


https://thoughtsaboutsuperpositions.blogspot.com/

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