The LHC has made history again. The researchers found new particles in the quark-gluon plasma.
That is always a big thing. Those particles are telling about the thing. How the material is formed in the early moments of the universe. How does the quark-gluon plasma get its form that turned to the material as we know it?
Those "X" particles are not elementary particles. They are mesons that are forming two or four quarks. That means the finding is not so big as Higgs boson was. The new particles are telling something about the universe and its first moments. But the thing is that there are a lot of unexpected things in the universe.
The thing about mesons is that those short-living particles are well-known but same time mysterious. The mystery of mesons is why they don't form stable components like protons and neutrons. Three quarks form protons and neutrons. Those particles are long-living or stable elements of atoms.
But when neutrons and protons are getting out from the electron core they just split. The reason why lone neutrons split. Is that they cannot get more energy from the energy core. The orbiting electrons are sending energy to the nucleus of the atoms. And the energy between the nucleus of atoms and the electron core is two-way. That means the nucleus of atoms from the quarks to the entire nucleus is interacting.
When we are thinking about the ages of bosons. We must ask one question. Why bosons are not stable? Is there something that is missing in those structures? And is that thing the mysterious "God" particle or maybe the graviton that keeps protons and neutrons as one entirety?
As I just wrote three quarks are forming protons and neutrons. Between those quarks are traveling gluons. When gluon is jumping between quarks it just pushes them. That makes protons and neutrons send wave movement. That wave movement is traveling to electron cores. And electron cores of the atoms are getting energy also from other atoms.
While gluon is traveling in its quantum world there is a vacuum behind it. That quantum vacuum is pulling the quarks behind it. If the quark is in the line with that gluon.
When gluons are traveling away from the quark. That thing causes the quantum vacuum or "low-pressure quantum area". That quantum vacuum pulls quark back. So quarks move back and forth when the gluon hits against them.
And whenever the quark is changing its direction it stops for a while. That causes the thing that the quarks are sending wave movement. The wave movement that quarks send. Has the same wavelength as the diameter of the quarks is. Also, the gluons are sending a wave movement whose wavelength is the same as the diameter of the gluon. So could that radiation explain the mysterious dark energy?
Why are ghost particles called neutrinos are detected only in LHC (Large Hadron Collider)?
There are detected signs of neutrinos in LHC.
The neutrino is one of the most mysterious particles in the universe. Those particles can travel through the planets without touching anything. And they are detected by benefiting Cherenkov radiation. The idea of a neutrino detector is when neutrino impacts the ice or water around the neutrino detector its speed decreases.
And then that particle sends the blue light flash to the light detector. The neutrino sensor benefits the thing that the speed of light depends on the medium where the photon travels. The Cherenkov radiation shows that neutrino has mass. And that is opening very exciting views of the use of neutrinos.
If neutrino would not have mass it would not transfer its kinetic energy to the neutrino detector in the form of a blue light flash. The Cherenkov radiation has caused an idea of the light wall. And there could be particles that are traveling faster than photons but nobody has detected that kind of particles yet. The neutrino is sometimes introduced, as a "dark photon" that would reach the same speed as photons.
Time dilation or time-traveling particle theory is one of the most fascinating and same time unbelievable ideas which purpose is to explain why some particles are materializing in the particle accelerators.
Is the hypothetical tachyon particle the thing that causes the materialization of the neutrinos?
In some of the most interesting theories, hypothetical tachyon particle that travels over the speed of light will impact particles in particle accelerators. Nobody has seen tachyon before. And that thing is purely hypothetical. The tachyon hypothesis goes like this: there is another universe at the speed that is the speed of light. And the speed of light is the thing that separates our universe from the tachyon universe.
But there is a thing called "tachyon symmetry". That means that when the particle will reach the speed that is the speed of light there would be a tachyon that pushes the particle back to our universe or denies it to reach the speed of light. In some versions, the tachyon should be the distance of the impacting particle diameter from the particle that accelerates from our universe.
When those particles would come near together. That thing causes that the wave movement between those particles creping. And then that creping wave movement forms the particle called neutrino or some other ghost particle between the tachyon and that particle that could be electron or proton.
When the particle closes the speed of light the tachyon forms the interaction with that particle. When the particle reaches the speed of light that thing would cause that the wave movement between the tachyon. And that particle would turn to the neutrino.
And then the tachyon denies that the particle cannot reach the speed of light. The thing that supports this theory is that the last couple of percent of the acceleration to the speed of light requires the most energy that is used in that process. But confirming this theory requires the prove that the tachyon existed. And its existence will prove by using scientific methodology. Before that, the tachyon and everything connected with it, are theories and hypotheses.
The idea is that the quantum entanglement over time causes the thing that looks like particles.
In some theories, time dilation is the reason that ghost particles seem to materialize in the LHC. That means they would be time-traveling particles. That is the result of the particle impact tests that happened in the past or the future. The thing is that quantum entanglement has an effect over time. And that effect looks like some kind of particle.
And that means that if there is a couple of the same way spinning quantum-size black holes in accelerator they can create wormhole or quantum entanglement from the future to the past. But in some other theories. The thing called quantum cone causes that the neutrinos will stop in LHC. The prime question is: why the neutrinos are detected only in the most powerful particle accelerator in the world?
"The quantum cone" theory
The reason why neutrinos can detect only in the most powerful particle accelerator. Can be the reason for that when the particles are traveling in that channel. They cause a similar effect with the airplane that travels in the air at extremely high speed.
The idea is that the similar pressure cone that forms behind the aircraft will form around the particle. In that case, we could call that thing a quantum cone. When the particle hits the wall of the quantum cone, that thing will load it with energy.
After that, the particle will go to the lower energetic area. And it releases the extra energy because energy flows always to lower energetic space. And that energy release causes that it cannot go through another wall of the quantum cone.
That means that the particle would cause the quantum shockwave around it. And if there is a low energetic area in that quantum cone that thing causes the situation where the neutrino will stop when it tries to travel across the quantum cone. When the neutrino will hit the edge of the quantum cone that are loads it with energy.
After that, it would go to a low energetic area where it stops until it reaches the energy level that allows it to travel through the wall of that quantum cone. This effect would stop neutrino for a while. But that thing requires more research for proving those things.
LHC (Large Hadron Collider) particle accelerator in CERN has first time detected neutrinos. Neutrinos are mysterious "almost like photon" particles. The thing that makes this observation special is that those neutrinos seem to be produced in LHC.
And that thing is one of the most interesting things in history. This observation tells that production of synthetic neutrinos is possible. The large and powerful particle accelerators are used to accelerate particles to extremely high speed, and an attempt is to make them collide with neutrinos.
The idea of those tests is to close the neutrino inside the particles like hadrons. If hadrons or shaper saying, baryon (proton) can close neutrino in its structure. That can make it possible to capture neutrinos between quarks.
The thing that makes neutrinos special, is that the neutrino can travel through the planet without any kinds of interactions. That makes neutrinos special, and the fact is neutrino would be an extremely good tool for long-range quantum communication. But that thing requires the ability to produce synthetic neutrinos. The thing is that making this kind of process requires so powerful energy loads that they are not economic.
But maybe in the future, the small-size fusion and thorium reactors. Are making it possible to equip all quantum computers with nuclear reactors.
But that thing requires that the neutrino can be produced, trapped, and turn into a qubit. The problem is that neutrinos are located only in nature, and the possibility to make "synthetic" neutrinos is one of the most fascinating possibilities in history.
The next part of the text is connected with neutrinos because it handles the hadron interactions. The phi meson is interacting with the baryon proton. And that thing will open the new road to particle physics. The hadrons are particle groups that are acting like one particle.
And that interaction between baryonic hadron and mesonic hadron. Is opening the road to understanding how the atoms and material are forming. What is the interaction that drives quarks to those formations that are called protons and neutrons?
The baryonic hadrons protons. And neutrons are forming most of the atoms. And the question is how quarks are forming those particles. One of the most fascinating questions in the universe is can also mesons form stable structures like protons and neutrons are forming. The thing is that this should be possible with all hadrons. But only stable formations atoms are formed of protons and neutrons.
