Could the WIMP be quasiparticles like exciton, where an electron orbits its hole and turns into wave movement? There is the possibility that some other particles than electrons can form similar structures with excitons. So could dark matter be some other quasiparticle like quark "exciton" or "gluon exciton"?
We know today quite many quasiparticles. And if things like gluons can form this kind of structure. And then gluon turns into wave movement. That thing can explain dark matter.
Theoretically, those "subatomic excitons" quasiparticles can form inside other particles. There is the possibility that the exciton-type structure can form when one quark or gluon turns to lower energy than it should.
So that means dark matter can be in other particles. Or maybe dark matter is a virtual particle, the gravitational electric arc, or some other things like quantum-size black holes.
In some visions, dark matter particles weakly interacting with massive particles (WIMP) is the quasiparticle. A little bit like excitons. In excitons, electrons start to orbit their holes.
So it's possible. That hypothetical exciton-type quasiparticle can form between the quark and its hole. Or maybe the gluon can make similar holes with electrons. In some visions, the electron or another particle that forms the hole can turn to wave movement. And that means the hole loses its electron.
The dark matter is a mystery. The reason why we cannot see that material is the thing that makes this mysterious gravitational effect interesting. In some visions. Dark matter particles or weakly interacting massive particles (WIMP) are things.
That can form mysterious dark matter. In some visions, dark matter is material whose temperature is lower than zero kelvin. If some particle's temperature is lower than zero kelvin or absolute zero point. The matter is dark. Energy will travel to those particles.
But the particle cannot travel through energy minimum in the particle form. The reason for that is that the particle will reach the same energy level as its environment. And that turns particles into wave movement.
The energy minimum of the third dimension is the floor of the three-dimensional material. And that border is the roof of the second dimension.
The dimension is the area between two energy levels. When the difference in energy levels between two particles is high enough the particles cannot exchange information. When two particles are between energy minimum and energy maximum, they can exchange information. But when particles reach the energy maximum or energy minimum. They lose their existence as material. When the material energy level turns high enough, it turns very small. And then it jumps through the energy maximum. That thing presses it like spaghetti.
In those models, the material cannot come from a higher dimension to a lower dimension in the form of material. The reason for that is that when the material reaches the energy floor or energy minimum, it turns into wave movement.
The energy always attempts to travel in the lower energy areas. But the thing is that when the universe expands its energy level turns lower. When energy impacts the border between dimensions it presses that border like a piston. There is the possibility that the 2D low-energy material can receive this energy and then it pushes its energy maximum, that is the zero kelvin temperature and the energy minimum in the 3D universe.
The zero kelvin degrees are the border of the second and the third dimensions. The 0 k temperature is the energy minimum in the three-dimensional universe. The particle cannot travel through that 0k energy level in particle form because it must have a different energy level than its environment.
When a particle reaches energy minimum, its existence as a particle ends. Because its energy level is the same as its environment. And that means the particle turns into a wave movement. The information can travel through that level only when it first turns into the wave movement.
https://bigthink.com/hard-science/dark-matter-search-new-device-will-look-for-ultra-light-particles/
https://en.wikipedia.org/wiki/Dark_energy
https://en.wikipedia.org/wiki/Dark_matter
https://en.wikipedia.org/wiki/Electron_hole
https://en.wikipedia.org/wiki/Exciton
https://en.wikipedia.org/wiki/Lambda-CDM_model
https://en.wikipedia.org/wiki/Quasiparticle
https://en.wikipedia.org/wiki/Weakly_interacting_massive_particle
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