There is no "nothing" in the quantum world.

   There is no "nothing" in the quantum world. 

The bubble theory goes like this. All material and quantum fields are one kind of bubble. And everywhere in the universe are quantum fields. Those quantum fields transport information, and there could be short and long-term vacuums or voids in those fields. When some of those voids collapse the quantum wave travels from the shell of that bubble into the middle of it. There that energy forms a standing wave and jumps back. 

That thing can explain why particles can form from emptiness. The particle is like a standing wave or power field in that quantum foam. In that model, the falling bubble in quantum foam can involve "sub foam". And then the outcoming quantum field or quantum foam just tries to press that bubble in. In that case, the pressure wave will lock in a certain position. 

The energy that comes outside the particle cannot press the internal energy or waves of a particle at one point. The ability to reach energy minimum causes a situation. Where energy travels back and forth in the border of that particle. When the bubble that we call a "particle" gets a lower energy level than the outside quantum field that causes a situation where that back and forth traveling energy locks the particle or bubble in its form. 

So could that interaction explain dark energy? The quantum foam would be the thing that interacts with all energy sources. And that thing could be one of the reasons why there is too much energy in the universe. 

In visions, there is a state of material called quantum foam. The density of quantum foam determines if we see that thing as wave movement or particles. In the case that material or elementary particles are like whisk-looking structures that spin very fast. Those strings that form the structure that we see as quarks or leptons are quantum lightning. 

So could that interaction explain dark energy? The quantum foam would be the thing that interacts with all energy sources. And that thing could be one of the reasons why there is too much energy in the universe. 

In visions, there is a state of material called quantum foam. The density of quantum foam determines if we see that thing as wave movement or particles. In the case that material or elementary particles are like whisk-looking structures that spin very fast. Those strings that form the structure that we see as quarks or leptons are quantum lightning. 

And there is the possibility that these kinds of things are one form of quantum foam. So when information travels somewhere the wave movement is a denser area in this quantum foam. And if there is some kind of empty area like Boötes void in the universe that thing can delete information that travels through those cosmic voids. 

We can think of information as the string that travels through the Boötes void, and when that string comes from the regular quantum foam to the low dense or empty point in that cosmic void the vacuum pulls it forward. That can cause a situation where the gravitational effect from backward pulls that string straight. 

So that thing is the extreme version of redshift. Because that quantum foam doesn't cause resistance the superstring starts to travel forward with extremely high speed. And then that extreme redshift pulls that string straight. The information cannot vanish. But it can be decrypted in a form that we cannot recognize it. 

In some visions, some kind of bubbles or miniature or quantum versions of Boötes void caused the famous Muon G-2 anomaly in Fermilab. Some kind of bubbles in quantum foam formed the small quantum vacuum that affected Muon's trajectories. There is a vision that those quantum voids pushed that quantum foam away from some areas. And maybe that thing explains the fifth force. 

The quantum foam explains why crossing the speed of light is so difficult. That quantum foam forms a similar quantum field as air molecules form. And that thing causes a thing called a light wall. The particle cannot press itself through the quantum foam because energy travels out from it at a critical moment. 

https://bigthink.com/hard-science/muon-g-2-new-physics/

https://bigthink.com/hard-science/nothing-exist-quantum-foam/

https://en.wikipedia.org/wiki/Bo%C3%B6tes_Void

A small piece of writing about the Higgs boson and its strange qualities

 

 

 

Is the spin of the Higgs boson equal to zero really or virtually? 

When particle accelerators are uncovering the Higgs' boson. They don't create it. They are releasing it by removing wave movement from around that boson. 

There is the possibility that Higgs's spin of Higgs's boson is virtually equal to zero. One version of that idea is that the Higgs's boson is in the extremely large quantum field. 

That means that the quantum field just slides over the other quantum fields. Or the spin of that particle is so high that we cannot recognize the changes in the wave movement. 

Theoretically, particles are like yarn balls. The particle is wave movement, turned to a ball-shaped form. There is "hair" on that particle. And when that "hair" is touching the outside quantum field it would slow its spin. During that moment the particle sends wave movement. 

If there is no hair on that particle it would not be slowing. And that means it would not send wave movement or the wave movement is straight or monotonic like some "OOOO". So we cannot detect that wave movement because it's monotonic. Changes in the particle's spin speed are the thing that causes the wave movement that sends wave movement and turns the particle detectable. 

Another version is that the particle's spin is extremely high that its hair makes the electromagnetic vacuum around it. That thing causes the phenomenon, where the particle has two quantum fields. The outer and inner quantum fields. 

If the quantum field is too large, the wave movement from the inner quantum field disappears. Or the observers cannot separate it from the shaking or waving of the larger quantum field.  If the quantum field of the small particle is too large it collapses. Because the energy from outside pushes it to a smaller size. 

Why Higgs' boson is so dangerous?

Higgs' boson is the only known scalar boson. The spin of those bosons equals zero. That means there is no side-moving wave movement. And that means the Higgs' boson is extremely hard to see. There is the possibility that Higgs' boson involves in all other particles. So if some kind of energy load is coming through the Higgs' boson that causes the phenomenon where the energy load that comes from Higgs' boson is ripping all other Higgs' bosons into pieces. 

That thing will erase all material from the space. The term scalar boson means that they are like the nucleus of all (or almost all) other elementary particles. And the other particles are the superstring, wave movement (or information) that is accumulated at the surface of those bosons. And the hypothetical graviton particle is the tensor inside Higgs' boson. 

But there is another possibility that can explain the strange behavior of the Higgs' boson. The spin of the particle can equal virtually zero. That thing means that the particle is smooth, as I wrote many times. The idea of the virtually zero spin means that there is no interaction or changes in the energy level of the quantum field that surrounds the Higgs' boson. 

The term "spin" doesn't only mean that the particle is rotating. That term can also mean the interaction between the particle and quantum fields around it. If there is hair on the particle, that hair causes changes in the quantum field around the particle. If the spin of the particle is very high we cannot detect the changes in energy level in the quantum field of the particle. 

Or actually, the hair must be high enough that it can come out from the particle's quantum field. The hair of the particles is sending radiation to the particle's quantum bubble. And that causes interaction between the outside quantum field. The thunder that makes it possible to see particles are coming from the particle's quantum field and outside quantum field interaction. 

So if the hair of the particle is inside the particle's quantum field its quantum field is smooth. That means the interaction between particles and outside quantum fields is like interaction with smooth surfaces. So the interaction is silent. If the Higgs' boson is released from other elementary particles. It hovers in the extremely large quantum field. That quantum field makes it impossible that the hair of the particle cannot reach the edge of its quantum field. 

And if the only thing that sends some kind of wave movement or chancing wave moment is only the nucleus of that Higgs' boson. That thing means that this radiation resonates only with other Higgs's bosons or the interaction happens only between other nucleuses Higgs' bosons. But that interaction requires that the Higgs' boson is released from its core. And it would very fast collect superstrings around it and form the new particle. So, that means Higgs' boson is in all other particles but only the highest energy levels can release it by removing superstrings around it. 

See also:

Higgs boson

Scalar boson

Standard model of physics

https://miraclesofthequantumworld.blogspot.com/