Tuesday, April 7, 2026

Could gravity waves form dark matter?



"Faint gravitational waves from the universe’s infancy may hold clues to how dark matter first formed. Credit: Shutterstock" (ScitechDaily, New Study Suggests Gravitational Waves May Have Created Dark Matter) 

If dark matter is whirling in quantum fields. Because. Of. Impacting gravity waves. That means dark matter is a virtual matter. The idea is that. Impacting gravitational. Or gravity fields form similar whirls. In their impact. Point as air flows. 

 The idea is that whirls in quantum fields can act like virtual particles. Those whirls form around the lower energy quantum field. Those whirls put energy or quantum field into motion. They act. In the same way as tornadoes and hurricanes act in the atmosphere. Moving structures bind energy, and that makes those structures lower energy than their environment. Those structures transport energy away from the point where they are. This makes those whirls or their wall seem cold. But. The energy or wave movement can travel into that whirl. So, only the wall of the whirl is the structure that binds energy. And that structure forms more whirls in the impact area. 

Could dark matter simply be whirl in quantum fields? If there is a whirl in the quantum field, that whirl can theoretically form the “Kugelblitz black hole”. Or a black hole that forms because of radiation. There is a possibility that if something emits a very high-energy radiation. Into a single photon. That thing can turn a photon into a black hole. The idea is that when that photon receives energy. Sooner or later, it releases it. When a photon sends energy. It forms a quantum void. Then, outside energy starts to fill that bubble. If that bubble is fully symmetrical, it pumps energy to that photon. 

A photon stores that energy into its spinning movement. And then. If a photon cannot transport energy out from it through the whirl, it turns into a black hole. The mass and energy in the photon rise until it can release that energy. The speed of the spin accelerates until the photon can release that energy. 

The falling quantum field turns that photon into a black hole if it is collected from an area that is large enough that the energy level in the photon rises so high that it turns into a black hole. When that happens. The photon must form so large whirls around it. It cannot remove its energy through that whirl. The spinning speed of the photon accelerates. When that whirl transports energy into it. 

So could the whirl in the quantum field explain dark matter? Theoretically, this kind of quantum spin can turn into a black hole in a similar way as a photon in the theoretical “Kugelblitz” black hole model. 

In this text, I will repeat the word “whirl”. The idea is that the dark matter could be the whirl in the quantum field. When a quantum field moves, it forms a series of whirls in the impact point. This means all particles can be surrounded by whirls. In the same way, when quantum fields impact other quantum fields. Their form whirls in the impact layer. This means that. Also, macro-scale quantum fields form whirls at the point. There those. Traveling quantum fields touch other quantum fields. In some cases, the whirl can be separated from the point where it is born. 

This thing happens. In the rivers, so if we transfer that model to the quantum environment. The whirl around the gravitational center can also be separated and form the traveling whirl that acts like a gravitational center or particle. We can think that the high-power energy strike hits the particle.  That energy spins a particle, and that forms the quantum tornado. This quantum tornado can form a low-energy point. That accumulates quantum fields that try to fill it. 

The gravitational centers are surrounded by whirls. The whirls are matter that travels to the center of gravity. Whirl is never alone. On the borderline of a whirl, that thing forms smaller whirls. So, if we think that gravitational fields are forming quantum whirls, then that thing can form a phenomenon that looks like material. 



Jupiter’s clouds. The idea is that impacting quantum fields, including gravity, can form similar whirls in the impact point. There, the traveling field impacts and speed of those impacting fields, or their direction is opposite. We can see how impact points between clouds form whirls. 

And we can transform that model into the quantum fields, including gravity. When two gravity fields impact, they form similar whirls. And those whirls pack quantum fields into them. So, if that whirl model is real, those whirls in the quantum field can pack matter or energy into them. 

When we consider cases, there are quantum fields that impact and form whirls. The walls of those quantum whirls are pulling energy out from the middle of the whirls. And that causes a situation where quantum fields travel to those quantum whirls. When a gravitational wave travels. All over the universe, it also has an impact point.

When we look at an image of Jupiter’s clouds, we see whirls. In the same way, gravitational waves can form whirls. The whirls in the impact layer of the quantum fields. If that kind of quantum whirls. Surrounding the impact layer of the universe, which explains why we cannot see other universes. Also, we can think. The whirl around the particles is forming a series of whirls in the quantum field. So, that means quantum strings can also be like extremely thin quantum tornadoes. The spinning structure binds quantum fields from their environment. And that can make those structures act. Like they are material. 


https://en.wikipedia.org/wiki/Kugelblitz_(astrophysics)

Sunday, April 5, 2026

Noise is the problem with quantum systems.



Above is Maurits Escher’s drawing Ascending and Descending. The drawing. It could portray the quantum system model. There is a quantum circuit where information travels. And the trunk. That mission is to deny the noise. The trunk is the cooling system that surrounds the quantum circuit. Because. In a quantum system, information travels in quantum entanglement from a higher energy quantum dot to a lower energy quantum dot. This means the quantum circuit is like a tower. 

The main problem. With quantum systems, the transmitting side in the quantum entanglement must be at a higher energy level than the receiver. That means it’s hard to make a closed quantum circuit that surrounds data. Every time data travels around the system, the last particle pulls the energy level in the system higher. 

Another problem is that. When the system processes information, it must bring information from other systems. This means that the other system must be at a higher energy level than the receiving system. But. Information rides in an energy beam, and that thing raises energy in the system. The free energy is the thing that destroys the quantum system. We can call this thing: “The last particle in the line problem”. When information reaches the last particle. The system must rise. The last particle’s energy level. Higher than the first particle. Energy level is. Or the last particle must transfer information to the hard disk. Then the system can adjust the quantum system again. 

Another solution can be the photons that are anchored around the laser beams. The photon is like a ring around that laser beam. The laser transmits information to the photon. Those laser beams also transport energy away from those photons. And that can keep their temperature stable. The important thing. It is to keep receiving particles at a lower energy level than transmitting particles. 

Information travels in the system between quantum points. The problem with quantum systems is the “noise.” The noise is free energy. In the system. Free energy forms because of the quantum field or glow that surrounds every quantum dot. When a quantum dot. Like a photon in quantum entanglement, the dot in a higher energy level transmits data to the quantum dot in a lower energy level. The information travels in the string, and when that wave movement reaches the receiver. 

It forms a flash in the quantum field. Or, the glow that surrounds the quantum dot. That flash transfers energy to the trunk. That causes oscillation in the groove that holds the quantum dot. Each quantum dot is like a light bulb. It shines energy. And that’s why those quantum dots cannot transfer all energy between each other. Lots of energy that carries information just travels into empty space in the quantum circuit. 




“In noisy quantum circuits, most of the work fades away—only the last few steps really count. Credit: Shutterstock” (ScitechDaily, Quantum Circuits Have a Hidden Weakness, and It Changes Everything)

The noise forms when energy in the system is rising. Data is traveling in the quantum circuit between superpositioned and entangled particles. The transmitting particle must be at a higher level than the receiving particle. The reason why the quantum system is so sensitive to noise is that all quantum dots are identical. Except that their energy level is different. This causes a situation where every oscillation escalates through the entire system. Because all of those particles have different energy levels, which causes the situation. Where those particles’ sizes are different. Because the transmitting particle’s size is a larger part of the energy, or information that travels between those quantum dots, it travels past the receiver. And that is one thing that forms free energy. 

Especially in the closed quantum circuit, data travels in a circle, and the system must raise the energy level within the circuit. The problem is in the cases. Where information reaches the last particle in the quantum system. Then the last particle must send information back to the first particle. So, the system must raise the last particle’s energy level over the first particle. And that means the system must raise the energy level in the entire system. The noise is another term for free energy in the quantum system. Free energy or entropy form. 

Because. Quantum entanglement cannot transmit 100% of energy to the receiver. The energy that travels between those quantum dots or particles affects the quantum glow around the particle. That glow transfers energy or wave movement between those particles and the trunk of the system. The energy level in the system. Cannot rise endlessly. If the energy in the quantum glow rises too high. That energy destroys the entire system. 


https://scitechdaily.com/quantum-circuits-have-a-hidden-weakness-and-it-changes-everything/

Thursday, April 2, 2026

Could the quantum-scale version of the altermagnetism, or gamma rays, form dark matter?



Alternamagnetism is a phenomenon. The magnetism is inside the object. There is no magnetism or electromagnetic interaction outside the object. Altermagnetism is one of the things that can cause another question. Could there be a similar effect in the other three fundamental interactions? Could there be a matter that is not visible and for which only known interaction is gravitation? Could this alter material explain dark matter? The quantum field that spins very fast could make it possible. 

That the matter itself turns invisible. A fast-spinning quantum field that moves away from electrons and protons can just push those waves back to the particles or the atom’s core. In the model of the De Sitter universe, the universe itself is surrounded by a divergent horizon. The information can never. Travel through that horizon. The effect is similar to a car that travels 100km/h. Then another car. Impacts that car from the back. With a speed. 101km/h. 

The impact speed is 1km/h. In the same way, if the horizon is a shockwave that travels 80% of the speed of light, and the photon impacts that field at the speed of light. The impact speed would be only 20% of the speed of light. This means that the photon’s energy level is not high enough for it to travel through that field. So could this kind of thing surround some particles or atoms? 

Of course, black holes are invisible. But. In the case of altermatter or dark matter, the field around those particles closes wave movement and photons in the quantum field. But is this possible at the quantum level? 

The wormhole, a tunnel through spacetime, can transport energy out from a particle so fast that the particle will not send wave movement or photons around it. 

Could the coherent gamma-ray beam transport so much energy away from the atom’s core that all photons from the electron shell travel into the atom’s shell? The gamma beam takes energy out of the atom’s shell. And the gamma-effect must not continue all the time. It’s enough that those gamma-rays keep the atom’s core energy level so low that electrons start to travel in that atom’s core. 

Another thing that can make particles or even atoms invisible is the opposite or mirror version of the electroweak interaction. In electroweak interaction, the weak nuclear force sends an energy impulse to electrons that orbit an atom’s core. And then those electrons send photons away from the atom. Fission and fusion are part of that kind of reaction. In the mirror version, something takes energy out of the atom’s core. 

The idea is that something changes the atom’s core energy level to lower than its electron shell. This should cause electrons to transfer photons into the atom’s core. If photons travel only into the atom’s core, that makes matter invisible. The problem is where the atom’s core puts that energy? 

The answer could be in the extremely short-wave coherent gamma rays. Those gamma-rays can act like a thermal pump, which transports energy out from the atom’s core. This thing. It can keep the atom’s core energy level so small that it makes energy travel into the atom’s core, and then that gamma-ray string. It can transport energy in a direction that the observer must look straight into the gamma-ray beam. 


https://www.quantamagazine.org/in-expanding-de-sitter-space-quantum-mechanics-gets-even-more-elusive-20260330/


https://scitechdaily.com/weighing-the-universe-astrophysicists-measure-the-total-amount-of-matter-dark-matter-and-dark-energy/


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


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


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


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


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

Could gravity waves form dark matter?

"Faint gravitational waves from the universe’s infancy may hold clues to how dark matter first formed. Credit: Shutterstock" (Scit...