Showing posts with label annihilation. Show all posts
Showing posts with label annihilation. Show all posts

Tuesday, March 24, 2026

Could quark annihilation explain something about dark energy?



Could the answer. For the dark energy mystery. Be. In some process of particle evaporation, which is previously unknown? And could that thing be the quark annihilation? 

Cosmic voids and material evaporation are interesting things. When we think about comic voids and conditions inside them. There. Quantum fields are weaker than in other places in the universe. This causes a material evaporation effect. And the question is, can this effect release as much energy as annihilation? When a particle starts to evaporate. An atom loses its electron shell. That gives the atom core room to expand, and then the bonds between protons and neutrons will break. 

In that process, energy is stored in the bonds between protons and neutrons. This energy release could form the extremely small WARP bubble around the atom shell. In that process, the evaporation reaction. It can be faster than predicted. When those bonds between protons and neutrons release their energy, that causes an effect. They also release energy into quarks that form protons and neutrons. This causes an energy impulse that pushes those quarks farther from each other. 

Released. This releases free energy in the system. Then the neutrons and protons start to decay. Or they release their quarks. This can happen. When a weak quantum field lets quantum fields around quarks expand. This causes that. The distance between those quarks starts to increase. 





“Graphic of quarks annihilating (left green lines), producing a photon (middle line), and producing two muons (right magenta lines). Scientists detected these muons to gain insight into the quark asymmetry of the proton. Image credit: Paul Reimer, Argonne National Laboratory”. (University of Michigan, Study finds unexpected antimatter asymmetry in the proton)

Sooner or later, the distance between quarks is so long that the bonds between them start to break. The neutron decay is confirmed. Two down and one up quarks form a neutron. This means energy travels to the up quark. And this effect causes neutron decay. 

Proton is more complicated. Its main structure is two up and one down quark. The energy travels to those up quarks more smoothly than in a neutron. But there are also particle-antiparticle pairs in proton. When the proton’s quantum field starts to expand, that causes an effect in which those particles and anti-particles touch each other. This effect rips a proton. In pieces. This requires that the quantum field around the proton expands as much as it allows those particle-antiparticle pairs to touch each other. Normally, the structure of a proton keeps antimatter and its mirror particles away from each other. But when a proton expands, that allows those particle-antiparticle pairs to annihilate. 

In that case, those bonds between those three quarks also release energy that is stored in them. In this process, the situation is similar to that in proton-antiproton annihilation. In that process. The reaction releases energy that is stored in those bonds. And finally, quarks and electrons turn into wave motion.

So, when we think that there is too much energy in the universe, we must ask, could that energy form in this type of reaction? When we think about material evaporation. And its relationship with dark energy, we must realize one thing. When reseachers make their calculations, they should know and handle every stage of those reactions. In cosmic voids, the speed of light is higher than outside it. This means all particles travel faster than they do outside the cosmic void. When they hit the edge of the void, they release that energy into those quantum fields. 


https://www.anl.gov/argonne-scientific-publications/pub/164087


https://news.umich.edu/study-finds-unexpected-antimatter-asymmetry-in-the-proton/


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


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


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


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


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


https://en.wikipedia.org/wiki/Void_(astronomy)


 

Saturday, September 6, 2025

Dark dwarfs can erase dark matter. And get energy from that reaction.

 Dark dwarfs can erase dark matter. And get energy from that reaction.  




"A newly proposed type of stellar object, called a dark dwarf, may be hiding in the heart of our galaxy. These faint, low-mass stars could be powered not by fusion, but by the annihilation of dark matter particles, possibly revealing the elusive nature of one of the universe’s greatest mysteries. (Artist’s concept). Credit: SciTechDaily.com" (These Strange Stars Could Reveal the True Nature of Dark Matter)

If dark energy can form a soliton, that soliton can transform dark energy into visible energy. 

The dark dwarfs could be mysterious substellar objects that can destroy dark matter and convert it into energy. When those objects erase dark matter. That means that dark dwarves transform hypothetical dark matter particles into wave movement. That wave movement can also form in cases where dark matter particles impact each other. Or those hypothetical particles can also aim wave movement into the dark dwarves and turn dark energy visible. In that case, the dark energy waves can form a soliton. If dark energy is extremely short-wave radiation. 

And, if dark energy starts to create a soliton. That soliton grows so high that its wavelength matches the observable wave movement. That causes interaction between dark and visible energy, or wave movement. 

So, a dark dwarf can form a soliton that acts as a tensor between dark and visible energy. The problem is how to pack dark energy into a soliton. The base element in this model is that. Dark matter is at least one of the sources of dark energy. The idea is that because dark matter is invisible, it sends a wave movement in the wavelength that we cannot see. 



"Artistic representation of a dark dwarf. Credit: Image created by Sissa Medialab staff with Adobe Illustrator"  (These Strange Stars Could Reveal the True Nature of Dark Matter)


Or if those dark matter particles impact, that sends a wave movement. And that means that wave movement can be a dark energy. And if dark energy forms when something erases dark matter, that means the Dark Energy Spectroscopic Instrument, DESI, observations support that model. If dark matter turns into a wave movement. That makes holes in dark matter. Because there is less dark matter in the universe. That causes a change in scattering in dark energy. 

So, if black holes are a dark energy source, can the dark dwarf be a tensor that can transform dark energy into visible energy? 

Dark dwarves are hypothetical objects that the dark matter or energy, which is composed of dark matter particles, such as hypothetical weakly interacting massive particles, WIMPs, can release when that strange object turns dark matter into wave movement or energy. The dark dwarf is like a tensor that transforms energy, from which WIMPs are released when they annihilate. 

The energy that the dark dwarf glows can form when WIMPs impact in the middle of it. There is also another explanation for how dark matter can cause the dark dwarf glow. The idea is that a dark dwarf can turn hypothetical axion particles into the same position. In that model, the axions are fast-spinning particles that are like sticks. 

Those sticks will turn their head to the dark dwarves. And then they harness energy and aim it into the dark dwarf nucleus. This could be possible if the star is in a very stable position outside the galaxy. Even a low mass object can cause large-scale effects, because there is no interference around it. That effect can pull the stick-shaped particles into the standing position.

 Or the gravitational effect can pull dark matter into the nucleus of the dark dwarf. Those particles impact and turn, or release the wave movement. The third way can be connected to the black hole. When a dark dwarf is near a supermassive or smaller black hole, that black hole pulls energy and dark matter into it. A dark dwarf can pull a small amount of dark matter to whirl around it. Then those dark matter particles collide with the particles that travel to the black hole. That causes energy impulses. That raises those objects' temperatures. If dark dwarves really can erase dark matter and turn it into visible energy, that thing can rewrite the fate of the universe. 


https://scitechdaily.com/these-strange-stars-could-reveal-the-true-nature-of-dark-matter/


https://scitechdaily.com/the-universes-engine-is-changing-desi-hints-dark-energy-isnt-what-we-thought/


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


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


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


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


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


Sunday, August 13, 2023

What is the nature of dark matter?

Gravitation may interact through dark matter. And that means dark matter or its hypothetical particle WIMP (Weakly Interacting Massive Particle) is the connector between gravitation and visible material. 

We can think that all objects act similarly when they travel through space. When a high-speed object travels in gas, it forms a low-pressure cone behind it. In the same way, when a particle travels in spacetime, there is a similar low-pressure quantum vacuum behind it. 

When particles or objects travel in spacetime. There is always a low-pressure channel behind them. If we think that the gravitational center pulls objects very hard into it through gravitational strings, there is also another quantum cone behind that particle. The graviton that could be an extremely small particle doesn't make exceptions with this thing. 

Graviton itself may be WIMP or the WIMP is the next particle between graviton and maybe gluon. The thing is that WIMP could be the gate to the fourth dimension or energy level, where a particle loses its ability to interact with three-dimensional particles. 



The size of the gravitational string is very small. So there is a model that thing the gravitational string pulls in it is WIMP (Weakly Interacting Massive Particle), or hypothetical dark matter particle. And then the visible material particle follows that dark matter particle in its quantum low-pressure cone. 

When the gravitation is strong enough, the cone behind the object stops it. That freezing happens at the speed of light. So what is the direction in which particles travel? That depends on the symmetry of those low-pressure cones. If those cones are symmetrical or have the same strength, particles cannot move and that field traps them. 

The light cone could also introduce a situation where particles reach the speed of light. The energy that pushes the particle has the same strength as the energy that pushes the particle back. So those energy cones have the same strength. 

So how gravitation can break this model? The idea is that gravitation pulls other particles to the cone behind the particle that falls into the black hole. In that model, the other particles and radiation that come behind the particle mash it through the event horizon. 



The idea is this: gravitation interacts through dark matter. The number of those gravitational strings determines the power of the gravitational field. And in that model gravitons forming in dark matter impacts in the middle of gravitational centers. Maybe the Euclid mission can prove this thing. 

The idea is that gravitation interacts through strings that form behind gravitons. The surface area of those strings where there is an electromagnetic or quantum vacuum is so small that interaction can be seen only in the smallest parts of atoms. When the speed of the particle is high enough, the cone behind it pulls it back. And at the speed of light, the cone behind the particle pulls it back so strongly that it cannot accelerate anymore.

So if we think that gravitation is interacting with dark matter, we might make a model of a graviton. The idea is this: in the center of all gravitational centers is a point where dark matter particles (weakly interacting massive particles, WIMPs) impact.

When a graviton, or hypothetical gravitational transporter, travels out from the gravitational center, it forms the hollow quantum string behind it. That string interacts with dark matter. The idea is that WIMP is a small particle with a large quantum power field. The power field causes small energy asymmetries in particles.

And then they fall into the gravitational field, which is a group of hollow strings. Those strings are like tubes where there is quantum or electromagnetic low pressure. When visible matter starts to fall into those stirrings, that matter acts like a plug. There is low electromagnetic pressure in that string that pulls particles to the gravitational center.


Dark matter annihilation happens in all gravitational centers. The strength of that phenomenon depends on the strength of gravitation. And the number of gravitational stríngs determines the power of gravitation. 


There are two ways this could happen.


1) The WIMP travels at the front of the particle. That means the graviton channel pulls WIMP into the gravitational center. And visible material particles are traveling behind the WIMP and its quantum low-pressure channel.

2) The WIMPs impact visible particles in the quantum field opposite the gravitational center. That causes energy asymmetries where electromagnetic low-pressure forms on the particle's front side. That thing could explain the gravitational interaction.


The particle where WIMPs touch could be a gluon or a string between gluons and quarks.


Dark matter's annihilation forms gravitons. So graviton is the particle that is the result of those dark matter impacts. The idea is that when WIMPs impact, they send graviton particles around those impacts. When hypothetical gravitons travel through spacetime there is a quantum tunnel behind them. That tunnel or string pulls those particles back into the gravitational center. Even if gravitons are small particles they still interact like all other particles. 

When the graviton starts to fall, it takes WIMP particles with it. The WIMP is such a small particle that its interaction is hard to notice, and maybe that interaction where gravitons, as well as WIMPs, interact with visible matter is the gluon or string between gluons and quarks. The WIMP interacts like a hook that pulls the smallest parts of matter into the middle of the gravitational centers.


https://www.nasa.gov/image-feature/shining-a-light-on-dark-matter

https://phys.org/news/2023-08-astronomers-dark-annihilation-center-earth.html

https://profmattstrassler.com/articles-and-posts/relativity-space-astronomy-and-cosmology/dark-matter/dark-matter-annihilation/

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

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

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

Image 2) https://profmattstrassler.com/articles-and-posts/relativity-space-astronomy-and-cosmology/dark-matter/dark-matter-annihilation/

Sunday, October 16, 2022

Cosmic antimatter mystery.



The antimatter is a mystery. At the beginning of the universe, the Schwinger-Effect created particle-antiparticle pairs. And one of the most interesting things in history is why only material remains. Why there was a little bit more material than antimatter? The interesting thing is could things like neutron stars form material from radiation. And could there be the Schwinger Effect in the modern universe? 

If there are magnetic fields in the universe that forms material, that thing could be one of the most revolutionary things in physics. And the principle of the Schwinger Effect is that when an electromagnetic field forms material, it forms particle-antiparticle pair. 

There is suspicion that some part of antimatter is forming during supernova explosions. In that case, the giant and extremely powerful shockwave travel through the universe. And there is a possibility that this effect turns the spin of electrons or even hadrons and forms antimatter. Or at least the supernova explosions are enough powerful that the radiation can make that thing. 


But an interesting thing is that also weaker magnetic fields like neutron stars and their radiation pikes can make that thing. Antimatter is forming in the atmosphere. When cosmic radiation turns the spin of some electrons. And that means also the atmospheres of other planets and plasma fields are the source of cosmic antimatter. 

Sometimes is introduced that some part of dark energy forms in an annihilation reaction where particle-antiparticle pairs are impacting each other. When we are talking about the annihilation and particle-antiparticle pairs we are not always talking about electron-positron pairs.

 Also, other elementary particles have anti-particle pairs. And maybe some part of dark energy forms when things like gluon-anti gluon (or boson-anti boson (or quark-anti quark)) pairs are annihilating. That thing is annihilation, similar way with the electron-positron pairs. 

But that kind of annihilation sends energy. That has a different wavelength than electron-positron annihilation. The fact is that also short-living bosons. And other high-energy particles that are short living can also make annihilation reactions. Maybe that kind of reaction is the source of dark energy, that rips the universe in pieces.  



https://scitechdaily.com/unraveling-a-cosmic-antimatter-mystery/


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


Image: https://scitechdaily.com/unraveling-a-cosmic-antimatter-mystery/


https://artificialintelligenceandindividuals.blogspot.com/

Wednesday, February 23, 2022

Is dark matter the result of imperfect annihilation?

 

 


Dark matter is a mystery. There are some suspected impacts with material and dark matter in particle accelerators. But otherwise, that thing is a mystery. Dark matter could be the source of dark energy. 

There is the possibility. That dark energy is similar to neutron radiation. When radiation hits dark matter. It would release extra energy in the form of radiation or wave movement. 

Dark matter is the gravitational effect. That dominates the universe. There is the possibility that the imperfect annihilation caused the part of the material to turn to the thing that we are calling visible material. There is about 15% of material in the universe. That is visible to us. Last of it is the mysterious thing that interacts only by gravitation with visible material. 

But when we are thinking about its form there is one thing that might explain why dark matter is not visible. If we think about the string theory the material is like a yarn ball. And annihilation reaction is the case where the strings of those yarn balls are opening. 

The string theory describes the material as the ball that is formed of wave movement. There is the possibility that if the energy level of the impacting particles is not the same the annihilation would not be perfect. 

So could the dark matter be the result of the imperfect annihilation? That means that material turns to energy when a particle and its anti-particle pair will impact. The case where two particles are turning to energy is true when the particles have the same mass. 

But if the other yarn ball is bigger the annihilation is imperfect. The case is that if the energy level of the participants of annihilation is not symmetrical. And another participant is higher energetic than others the annihilation would not turn the entire material into energy. 

When the material is turning to energy in the material-antimatter impact means the impact of particles releases only the same number of strings as the lighter particle has. If we think of those particles as the yarn balls. The particle is at a higher energy level than the other is a bigger yarn ball. 

The idea is that when a particle hits its mirror particle it can turn only its mass of material to energy. So if the electron and positron are impacting and the energy level of the other participant of the annihilation is higher. That causes that there are remainings of the higher energetic particle. 

So, at the beginning of the universe. There was the Big Bang. The event, that released all material and energy to the universe. Or there is a theory that at the first released wave movement. Then that wave movement turned to particle-antiparticle pairs. And after that happened the big annihilation that formed the elementary particles. 

But if we are thinking about the Big Bang. And particle wave-movement duality we are facing one interesting thing. When crossing wave movements form material. They are forming the antimatter-material pairs. So that thing means that there is the possibility that the energy levels of those particle pairs were different. 

And that means the annihilation between them would be imperfect. So if we think like that. There is the possibility that the asymmetry in annihilation caused the visible material and dark matter to form. 

The energy asymmetry causes an effect. The particles of dark matter and visible material are not the same sizes. So we cannot see the radiation that comes from the dark matter. So could that radiation be dark energy? There is the possibility that dark energy is similar to neutron radiation. That thing would form. 

When the particles of dark matter will stress with radiation. And after energy stress, those invisible particles will release their extra energy as a radiation burst. The fact is that dark matter is dominating. And should we ask like this? Is the visible material result of imperfect annihilation? 


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


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


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


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


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


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


https://thoughtandmachines.blogspot.com/

Could a graviton be a low-energy photon?

Image of a photon. We can think of gravity as forming when particles or objects spin. That spin binds energy from around it. That spin turns...