Skip to main content

Did Higgs's boson blow mass to material?

   Did Higgs's boson blow mass to material?

 

Higgs boson is an interesting, high-energy particle. The existence of that particle is very short. The extremely high energy level of Higgs boson causes a situation where it sends wave movement to space that surrounds it. That quantum field causes a situation. Where the quantum vacuum rips Higgs's boson in pieces. And that shockwave interacts with its environment. That forms some short-term particles and virtual particles in the impact point of the shockwave. 

The reason for that is the  Higgs's boson's extremely high energy level. The energy level determines the speed at which energy can travel out from the particle. 

And there is the possibility that there is only one or two particles between the photon and the Higgs boson. The idea is that Higgs's boson is a particle that turns into a photon through the particle. That we can call "X". The particle X would be at a higher energy level than Higgs's boson. The idea is that the size of the particle decreases or the particle turns smaller when its energy level rises. So the light cone can show how the particle's size turns smaller when its energy level turns higher. Then sooner or later, the particle turns as small as it can. And in that moment the quantum field inside the particle travels outside. 

Then suddenly, decreasing size removes mass from the particle and turns it into a photon. In some models, there is a possibility that the particle will turn so small that it decreases its quantum field. So the particle loses its mass or its quantum field fills it. That means the particle and its quantum field turn into one entirety when the particle's energy level is high enough.



*****************************************************************


The gravitational waves can slow the particle. 


In this model the particle is hollow. The particle itself looks like a whisk. The quantum fields impact that particle causing reflection that is seen as gravitational waves. Gravitational waves transport energy out from particles. 

And that thing causes a quantum shadow that puts energy travel into the particle. In this model, energy moves back and forth in and out of particles. Every particle and its quantum fields look similar, with power fields around neutron stars. But those interactions are weaker at subatomic levels. 

That wave movement that travels in all directions slows particles. And that can explain why only photons can reach the speed of light. But a filling particle can turn it into a photon-type particle. 

The reason why a photon has no mass would be that the photon has no hollow space inside it. That denies the quantum shadow around the photon. That means energy doesn't make back-and-forth movement around photons. And that makes photons so fast. 


*****************************************************************



"When a symmetry is restored (yellow ball at the top), everything is symmetric, and there is no preferred state. When the symmetry is broken at lower energies (blue ball, bottom), the same freedom, of all directions being the same, is no longer present. In the case of the electroweak (or Higgs) symmetry, when it breaks, there’s a spontaneous process that occurs, giving mass to the particles in the Universe.(https://bigthink.com/starts-with-a-bang/higgs-gave-particles-mass/)


The sombrero images the particle and its energy interactions. And it can introduce how quantum gravitation works. Quantum gravitation is the gravitational field of single particles. And the planets, stars, and other things entirety of particles. And their gravity field is the entirety of quantum particles. 

In some models, the sombrero introduces the energy model in particles. The electromagnetic pothole around the particle surrounds it. The particle is like a hill. The hill's height portrays the energy level of the particle. The difference between energy levels inside and outside particles determines how fast energy travels out from it. In some models, there is a pothole at the top of the hill. 

Energy travels from a higher energy level to a lower energy level. And if there is another energy pothole in the particle. That thing causes standing waves and reflection from the middle of the particle. That thing would be gravitational waves. The gravitational waves that travel out from particle causes quantum freezing. They take quantum fields away from particles. And that causes the situation. Where quantum fields start to travel to the lower energy area near the particle. 

That thing can explain why a particle has mass. And why gravitation is so a weak force. 

The model that the Higgs boson gave mass to other particles is interesting. It's possible. That the Higgs bosons gave material its mass. That thing happens when it releases its energy. High energy impact from Higgs bosons impact with photons and somehow blew them into the hollow. Then that hollow particle forms the standing wave and reflects waves to those particles. 


https://bigthink.com/starts-with-a-bang/higgs-gave-particles-mass/

Comments

Popular posts from this blog

Researchers think that the multiverse is not fiction anymore.

Multiverse means that our universe is one of many universes. The reason why researchers and scientists believe that this is true is that logical. About 50 years ago people didn't know that there were other solar systems. Exoplanets were only theories in the 80's.  About 400 years ago people thought that our Sun was the only star in the universe. Edvin Hubble proved that our galaxy, Milky Way is one of many galaxies. Then researchers found that galaxies form groups, and supergroups. That means that today we think that the universe, where we live is the ultimate supergroup of galactic supergroups. And logically thinking there should be other universes. We believe that the universe began its existence in an event or series of events called the Big Bang. That event did not begin, because the energy that formed material should come from somewhere. The Big Bang was not one "bang" or explosion. It was a series of events where material took form. Or the energy level that it h

Helium-3 production from tritium.

The fusion energy is theoretical level. The fusion systems are still at the laboratory level. That means there are many problems to overcome before commercial fusion systems. The fusion fuel can be produced from heavy water. The system bombs deuterium with neutrons. Or it can shoot deuterium or some other atoms against each other.  That can create neutron stripping, which transforms deuterium into tritium, and then the laser systems can increase the dividing speed of tritium. In that process, tritium transforms into Heluim-3 (3^He). If the system wants to produce Helium-3 for experimental or pulsed plasma rocket engines, that thing doesn't require that the Helium-3 production must be economical.  Hydrogen's heavy isotopes deuterium and tritium are the most promising fusion fuels. The problem is where the system can produce tritium or Helium3 for the fusion fuel. The 100 million K temperature allows two Heium-3 atoms can create fusion. There is the possibility to produce Hellium

Is some quantum version of the bubble pulse effect behind the dark energy?

  "Dark energy’s role in propelling the universe’s accelerated expansion presents a pivotal challenge in astrophysics, driving ongoing research and space missions dedicated to uncovering the nature of this mysterious force." (ScitechDaily, Deciphering the Dark: The Accelerating Universe and the Quest for Dark Energy)  Is the universe formed in energy projection? That traveled in some kind of space vacuum. That requires. That there was some kind of energy field before the Big Bang.  Quantum field is the common name of all power fields in the universe.  Is dark energy a gravitational version of the bubble pulse effect, that detonates submarines? In the bubble pulse effect, the bubble or some other projection. That travels in the larger bubble causing a very high explosive explosion. So could that effect be possible in electromagnetic and gravitational fields? Gravitational fields differ from electromagnetic fields because of their wavelength.  In some models, the double bubble,