CERN didn’t find evidence of quantum-sized black holes.

“The LHC has ruled out another hiding place for microscopic black holes while unveiling a new way to hunt for physics beyond the Standard Model. Credit: AI/ScienceDaily.com” (ScienceDaily, The LHC just ruled out another hiding place for quantum black holes)

“Physicists at UC Santa Barbara have pushed the search for microscopic black holes at the Large Hadron Collider (LHC) at the European Organization for Nuclear Research (CERN) into new territory.”(ScienceDaily, The LHC just ruled out another hiding place for quantum black holes)

“These hypothetical black holes would be extraordinarily small and short-lived. If they could be produced at the LHC, their existence might help physicists address some of the deepest unanswered questions about spacetime and gravity. The search also gave researchers a chance to test a new technique for finding rare and previously unknown particles.”(ScienceDaily, The LHC just ruled out another hiding place for quantum black holes)

Could those quantum-sized black holes be the gravitons? And the induction question is: could those mythical WIMPs (Weakly Interacting Massive Particles) be the same quantum black holes? 

Reseachers probably saw one WIMP in deep underground sensors. If. A WIMP is a quantum-sized black hole. That explains why that particle can tunnel itself through everything. The extremely high-energy halo can push those particles through quantum fields away from the route. 

In some models, those quantum-sized black holes can be inside every single particle. That has mass. In those models, quantum-sized black holes form quarks around them. So, if that is right. The quantum pressure keeps those black holes in their form. When. Those quantum fields that we call elementary particles vanish. That. Causes immediate destruction. Without. Quantum pressure. That black hole evaporates immediately. 

“Physicists searching through Large Hadron Collider data found no evidence that the machine has been producing microscopic quantum black holes, but the result sharply narrows where such exotic physics could still be hiding. These hypothetical black holes could form if extra spatial dimensions make gravity much stronger at extremely tiny scales, potentially offering clues toward the long-sought theory of quantum gravity.” (ScienceDaily, The LHC just ruled out another hiding place for quantum black holes)

This means that CERN and the LHC couldn’t create those quantum-sized black holes. One reason could be. Those collisions. And the energy. That formed in them. it. Wasn't symmetrical enough. This means. The impacting particles, like protons, couldn’t compress quarks into quantum-sized black holes. This could explain why. The LHC could form those interesting miniature black holes. 

Another possibility was that the proton-proton collisions formed quantum-sized black holes. But those black holes evaporated so fast. The measurements were impossible. The thing that could make those hypothetical quantum-sized black holes visible is the situation. 

That. The black hole could pull a little bit of energy into itself. That thing makes it possible to measure energy.  That. The black hole releases energy when it evaporates. If. That evaporation happens very soon after the black hole's formation. This thing causes a situation. That evaporating black hole releases as much energy as it bound. That means. That. The black hole could be very hard to detect. 

That evaporation seems like a regular quark collision. The black hole turns Visible. If. It stores enough energy. That. It releases during that process. If that quantum black hole forms in quark-gluon plasma. That black hole must be in an extremely dense environment. The black hole’s energy must be higher than the energy level in its environment. This makes the sensor detect the evaporation. So the black hole needs a little bit of time. To pull more energy into it. Than it had when it was born. 

When a black hole evaporates, it could send X-rays or gamma rays. That kind of radiation could uncover those black holes. But it’s hard to separate it from radiation that comes from those high-energy experiments. 

That makes. It reaches a higher energy level than it had in quark-gluon plasma. The problem is that. If. Those quantum-sized black holes exist. They send gravitational waves. Those waves are very weak. And they remain only when those quantum black holes evaporate. There is a theory. That. Maybe gravitons are those hypothetical quantum black holes. This is one of the most interesting theories in physics. Small black holes can explain dark energy. There is a possibility. That. Near galaxies, energy and matter. 

Along with quantum pressure. Can keep those quantum black holes in their form. When. Those hypothetical black holes escape from the galactic halo. They evaporate. That explanation could seem very strange. But it could explain why we cannot see dark matter. Quantum-sized black holes can explain. Why can't we see dark matter? If dark matter is made of quantum-sized black holes. They could be invisible. 

https://www.sciencedaily.com/releases/2026/09/260922005649.htm

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

Exploding white dwarfs and neutron stars uncover primordial black holes.

“Primordial black holes may pass through white dwarfs and ignite a subset of Type Ia supernovae. New models suggest these hidden encounters could reproduce observed explosion signatures while leaving distinctive chemical traces across the Milky Way. Credit: SciTechDaily.com. “(ScitechDaily, Invisible Black Holes Could Be Triggering Supernovae)

It is possible that so-called hidden black holes can trigger white dwarf explosions. The so-called primordial black holes could be very small. They can form a shell that resembles a planet or even a dwarf planet. Those very small black holes can sometimes impact white dwarfs. Or even neutron stars or magnetars. When a small primordial black hole impacts a white dwarf. 

This event causes a strong nuclear reaction. The carbon atoms in the white dwarf melt together. That primordial black hole is so small that it cannot pull the white dwarf into it in one bite. The black hole rips the white dwarf into pieces. And turns it into liquid or gas. Before. It pulls that matter inside it.

The white dwarf does not involve van der Waals bonds. Atoms, mainly oxygen and carbon, are very close together. That causes collapse in their electron shells. Those atoms are actually in the form. They are extremely ionized. If some energy impact, like a GRB or FRB, hits that thing. It can cause a Type 1a supernova. 

“Schematic Illustration of a Primordial Black Hole Passing Through a White Dwarf. Schematic illustration of the primordial black hole passing through a white dwarf. Along its trajectory, the gravitational force of the passing black hole creates tidal heating. “(ScitechDaily, Invisible Black Holes Could Be Triggering Supernovae)

“To the surrounding matter inside the white dwarf. As the heated matter reaches the threshold temperature (<~0.5 billion Kelvin), the hydrostatic carbon burning will exceed the neutrino cooling, creating an uncontrolled burning. “(ScitechDaily, Invisible Black Holes Could Be Triggering Supernovae)

When. The burning zone is large enough. The heated matter can form. A local thermonuclear runaway which triggers the later Type Ia supernova explosion. Credit: Generated using Gemini AI (Banana Pro)) (ScitechDaily, Invisible Black Holes Could Be Triggering Supernovae)

“A Type Ia supernova (read: "type one-A") is a supernova that occurs in binary systems (two stars orbiting one another) in which one of the stars is a white dwarf. The other star can be anything from a giant star to an even smaller white dwarf. ” ”(Wikipedia, Type 1a Supernova)

“Physically, carbon–oxygen white dwarfs with a low rate of rotation are limited to below 1.44 solar masses (M☉). Beyond this "critical mass", they reignite and in some cases trigger a supernova explosion; this critical mass is often referred to as the Chandrasekhar mass, but is marginally different from the absolute Chandrasekhar limit, where electron degeneracy pressure is unable to prevent catastrophic collapse.”(Wikipedia, Type 1a Supernova)

If. There are electrons in the core. That doesn’t form the fusion. Oxygen and carbon ions. There. Atomic cores are against each other without electron shells. The strong energy load causes a situation. There, those ions melt together. Releasing lots of energy. 

Another thing that releases energy is the fusion between carbon atoms. That reaction releases an extremely strong energy load. Another version of the white dwarf explosion can be the case. There, the black hole’s energy beam hits the white dwarf. That could cause a fusion reaction between carbon and oxygen atoms. That combination is the most common in white dwarfs. Another version is the heavy white dwarfs. These are formed of carbon and neon. 

The same way as when a small black hole faces a neutron star. This means that the neutron star’s iron shell detonates immediately. The detonation cannot destroy the neutron core. But the effect is extremely rough. The neutron bonds can resist that power. But the neutron star. It sends gamma- and X-ray radiation. 

A black hole’s gravity field. It can turn a neutron star into neutron smoke. That releases a lot of energy in that reaction. Those reactions can uncover the existence of the primordial black holes. The primordial black hole is the thing. That could detonate a white dwarf or neutron star. The detonation. That happens in a lone white dwarf. 

If a white dwarf detonates. Without visible reason. That could uncover a small black hole.  Same way, if a neutron star starts to send unexpected X- or gamma-rays. And there are no observable material disks. Or some marks of a merger with another neutron star. That thing can be the thing. That uncovers the existence of low-mass black holes. 

https://scitechdaily.com/invisible-black-holes-could-be-triggering-supernovae/

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

Dark matter and black holes.

"Artistic rendering of Penrose super-radiance: electromagnetic waves with selected rotation patterns are amplified as they interact with a system that appears to rotate at superluminal speeds. Credit: Dalila Pasotti and Hadiseh Nasari" (ScitechDaily, Physicists Just Turned a Black Hole Energy Theory Into Reality)

Could an extremely fast-spinning particle explain dark matter? The particle is the combination of the particle and its quantum field. The quantum field surrounds a particle like a halo. And we can think of the halo that surrounds the particle as particles that orbit in a synchrotron. This means that when that quantum field orbits the particle. That quantum field. That is like a wire or string around the particle that sends a photon. 

So when the particle starts to spin fast enough in its quantum field. Or maybe the particle’s quantum field orbits in the opposite direction to itself. That can help. To create a situation where the particle starts to collect energy and conduct it. Into its spin axle. 

That spin binds energy from the quantum field. Or a quantum string that surrounds the particle. If the particle’s spin turns fast enough. It starts to bind so much energy from the string around the particle. It starts to act like a thermal pump. The fast-spinning particle starts to drive. Energy into its spin axle. And that makes dark matter particles. Hypothetical WIMPs. (Weakly Interacting Massive particles) invisible. The idea is that the particle binds energy and conducts it in a way. That its energy level is lower. Than outside space. 

Bremsstrahlung radiation is produced by a high-energy electron deflected in the electric field of an atomic nucleus. This model can be improved by modeling quantum strings around atoms at the positions of electron orbitals. When that quantum string orbits the particle. That thing sends. A wave movement similar to bremsstrahlung radiation. 

Because black holes stretch everything. That means a stretched photon can steal energy from a black hole’s event horizon.

There is a possibility. That WIMP is a small black hole. 

In some models, WIMPs are the quarks or quark-electron pairs. That is united into one entirety. So if one quark is pressed into another quark. Or electron and quark. They are combined into one entirety. That could be the form of the WIMP. This means that it’s possible that WIMPs formed in the fusion of some elementary particles.  But those things are only speculation. 

This model is taken from black holes. The black hole spins very fast. Its halo pumps energy into the event horizon. The plasma halo and material disk. They are the highest energy areas. In the universe. The black hole and its singularity. They bind energy from that halo. So, if we want to create a small black hole. We must only push quarks inside each other using the quantum field of the particle. So we should only create the symmetrical laser light that pushes quarks inside the photon into each other. 

In the same way, a black hole is surrounded by the quantum field. The halo surrounds the event horizon like a ring. Sir Roger Penrose once suggested that black holes’ energy. It can benefit from using particles that divide just before they impact the event horizon. Those particles form quantum entanglement. 

That is possible. Because a photon can multiply itself. Or rather saying. The photon can decay into two lower-energy parts. This thing is known as: “Spontaneous parametric down-conversion (also known as SPDC, parametric fluorescence or parametric scattering) is a nonlinear instant optical process that converts one photon of higher energy (namely, a pump photon) into a pair of photons (namely, signal and idler photons) of lower energy, in accordance with the laws of energy conservation and momentum conservation. It is an important process in quantum optics for the generation of entangled photon pairs and of single photons.” (Wikipedia, Spontaneous parametric down-conversion). 

In a black hole’s extremely high-energy environment. That photon pair’s energy levels can rise to very high levels.  Because black holes stretch everything. That means a stretched photon can steal energy from a black hole’s event horizon. As I wrote before. 

Then a massive energy impulse starts to travel away from the particle. That is near the event horizon. The energy travels through quantum entanglement. And kicks another upper particle away. That particle transfers energy into the black hole’s halo. Energy that travels just from the point of the event horizon. It can kick particles away. This could be the thing that can be used someday. 

https://scitechdaily.com/physicists-just-turned-a-black-hole-energy-theory-into-reality/

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

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

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

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

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

How can the black hole merger form gamma-ray bursts?

When black holes collide, that event sends gravitational waves. There is a possibility that the gamma-ray burst (GRB) forms when those black holes’ halos touch each other. Every black hole is surrounded by material disks and photons that orbit it. The black holes. That participate. In this event. They were about 50 times larger than the sun. 

”Together, the two black holes weighed more than 100 times the mass of the Sun, placing the event among the most massive stellar-mass black hole mergers detected so far. Most previously observed mergers involve systems with only a few tens of solar masses.”(Interesting Engineering, A cosmic surprise: Black hole merger may have sparked a gamma-ray burst) 

The large size and heavy mass of those black holes tell. That. Those black holes could be the result of previous mergers. They were extremely large stellar black holes. 

Before black holes’ event horizons touch each other, those halos of matter and photons cross each other. In that case, if those halos and material disks impact each other. Particles that orbit those black holes interact, and these interactions can form the GRB. In this case, the GRB formation happens. When those halos that orbit in opposite directions impact each other. In those large black holes, their halos are quite large. 

And that means those halos have a time to reach a very high energy level. If those black holes were smaller, or their sizes were different. This can mean that the interaction between those material halos is shorter. That forms the shorter. And lower energy gamma- or X-ray flash. This thing. It can prove primordial black holes. 

And if all black hole mergers form the gamma-rays, this thing should mean that all of those black holes spin in opposite directions. That causes the model. The black holes turn. Into superposition and entanglement. Before they impact. Every time particles go into quantum entanglement, they spin in opposite directions. In the same way, if the black holes go into quantum entanglement, they will turn to spin in opposite directions. 

When we start to think that the source of the mysterious gamma-ray bursts is the cases where the black hole’s material disks and halos touch each other, that can be the first evidence about the miniature, primordial black holes. Those miniature, or planetary-mass black holes, form similar halos around them as larger black holes. 

This means that. Maybe some gamma-ray lightning, whose origin is in lone black holes, can merge with a small black hole. Those black holes could form when the radiation from the bigger black hole presses. A planet or some other objects in the form of a black hole. This means that the black hole could clone itself. 

https://interestingengineering.com/space/black-hole-merger-produces-light

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

The black holes’ sound proves one of Hawking's theorems.

"This artwork imagines the ultimate front-row seat for GW250114, a powerful collision between two black holes observed in gravitational waves by the US National Science Foundation LIGO. It depicts the view from one of the black holes as it spirals toward its cosmic partner. Credit: Aurore Simonnet (SSU/EdEon)/LVK/URI" (ScitechDaily, Scientists Finally Hear Black Holes Ring, Confirming Hawking’s Famous Prediction)

When a black hole merger happens. Those things are spinning around each other before they impact. The black hole rings like a bell. And that proves one of Hawking’s theorems. When black holes collide or merge, that event forms the new black hole. The new black hole is more massive than those black holes, but it's less massive than the total mass of the merged black holes. That thing means that during a merger, black holes lose energy as gravitational waves. And that is one of the most interesting things in the universe. When a gravitational wave travels through the universe, it acts like all other wave movements. If there is a gravitational object, or an object with mass, in the path of gravitational waves, that object distorts those gravitational waves, because all objects with mass send those waves. 

“By analyzing the frequencies of gravitational waves emitted by the merger, the LVK (LIGO, Virgo, KAGRA, gravitational sensors) team was able to provide the best observational evidence captured to date for what is known as the black hole area theorem, an idea put forth by Stephen Hawking in 1971 that says the total surface areas of black holes cannot decrease. When black holes merge, their masses combine, increasing the surface area. But they also lose energy in the form of gravitational waves during the phenomenon. Additionally, the merger can cause the combined black hole to increase its spin, which leads to it having a smaller area. The black hole area theorem states that, despite these competing factors, the total surface area must grow in size.” (ScitechDaily, Scientists Finally Hear Black Holes Ring, Confirming Hawking’s Famous Prediction)

That thing can help determine the source of dark energy. Dark energy means. Free energy that increases entropy, and increasing entropy. Increases the power that we see as the cosmic expansion. So, in the case of dark energy, we should ask, what releases that energy?

Or what puts energy into moving? There is a possibility that the soúrce of that energy is in some kind of cosmic voids. Those voids can be like holes. In some energy fields, they can accelerate and stretch wave movement. When wave movement falls in the cosmic void. It should stretch. Because the scattering effect and resisting fields turn weaker. When that wave movement impacts the opposite side in the cosmic void, that turns the wave movement shorter. And this is why the position. Where we are is important. 

If we are living in a cosmic bubble, that means the bubble distorts wave movement. That bubble or void also makes the particle’s evaporation faster than outside the bubble. Because the energy level in the bubble is lower than outside it, that means matter turns wave movement faster than outside it. 

There is a theory. That we are in a cosmic bubble. That bubble can have an effect. On the measurements. When we think about the black hole merger. Those events can form bubbles. In things like gravity fields. The model is based on the wave movement features. If the very thin but strong wave movement field travels across the field, where the wave movement’s wavelength is the same, the stronger field takes the lower energy field with it. When a black hole merger happens, those black holes release their energy in the form of gravitational waves. 

Those gravitational waves can form a bubble that pushes the gravitational field away from the merger. That kind of gravitational bubble can make the “empty” gravitational waves. When that bubble collapses. Gravitational wave impact in the middle of it. And that makes the event look like a vacuum bomb. The impacting wave movement that reflects from the middle of the collapsing bubble. Can put energy into moving. And maybe these kinds of bubbles can explain dark energy and gravitational waves. 

Gravitation affects the field that takes particles with it. That means when the field travels in the bubble. And reflect from inside, that thing makes those bubbles or voids act like particles. When a particle starts to spin with a very high speed, it collects energy into its whisk-shaped shell. That shell forms so-called superstrings. When a particle spins, it collects energy fields from around it. Or it transforms that field into kinetic energy. Those superstrings collect the field from around them. And some part of that field falls into the middle of the particle. And then that field or waves reflect from the center of that particle. 

https://nasaspacenews.com/2025/04/were-living-in-a-supernova-bubble-and-the-proof-is-beneath-our-feet/

https://scitechdaily.com/scientists-finally-hear-black-holes-ring-confirming-hawkings-famous-prediction/

https://scitechdaily.com/earth-could-be-in-a-massive-cosmic-bubble-thats-warping-the-universe-astrophysicists-reveal/

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

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

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

Hawking was right. Black holes’ event horizons cannot withdraw.

  Hawking was right. Black holes’ event horizons cannot withdraw.

“Computer simulation of the black hole binary system GW150914 prior to merging. Credit: SXS” (Universe Today)

It’s possible that all black holes spin. 

Hawking was right about black holes. Their event horizon cannot withdraw.  When two black holes collide, their event horizons’ size is as big as both of those black holes before they collide. When black holes collide, they send a gravitational wave. And that wave is an energy impulse that forms when those black holes collide, meaning a small portion of their mass is converted into energy that is released as gravitational waves. But why does the size of those black holes' event horizon not decrease? 

The reason for that is in the nature of the spacetime and the universe. The thing that keeps a black hole in its form is the material and energy that forms a whirl around it. As the universe expands, the quantum fields and material pressure against the black hole weaken. That means that. The energy that keeps the black hole in its form turns weaker. When a black hole sends gravitational waves, it sends its event horizon’s “shell” away from it. The idea is that decreasing the energy level of the whirl around the black hole sucks energy out from the event horizon. 

In that model, the gravitational wave forms. When the whirl around the black hole jumps out of it. When the energy level in the whirl around the black hole decreases, that whirl jumps out from the black hole. The Schwarzschild radius is the singularity’s distance to the point at which the escaping velocity reaches the speed of light. That distance depends on the mass of the singularity. The Schwarzschild radius doesn’t depend on the whirl that surrounds the black hole. Actually, the Schwarzschild radius depends on the black hole’s mass and energy relation with its environment. 

The idea is that when we are in the middle of the quantum system. And we face a global change. That affects all particles. When a black hole loses its mass, the universe or space around it loses its energy in the same relation. That means the relation with the black hole and its environment is the same. We cannot see global changes in the system if we are in it. 

All mass in a black hole is in the structure called a singularity, where material, energy, and time are connected together. In this model, gravity waves form in the black hole’s gravity field. In that process, the black hole loses a photon. 

The interaction between the black hole and its environment is complicated. Materia is one energy form. It’s like a pack of energy. You can imagine what energy level is stored in a singularity, where an entire star, whose mass is many suns, is pressed into a size that is smaller than an atom. That is a lot of energy packed in a very compact space. Otcoming energy keeps that structure in its form. And without that energy that comes from outside, the energy  stored in that structure is released. So, the mass is relative to its environment. When a black hole binds energy from its environment, its own energy level rises. That process happens because a black hole spins. Without that spin, the black hole, or its singularity, cannot bind energy that travels against it. 

Above: A Spiral galaxy is a whirl around a supermassive black hole.(Wikipedia)

The singularity must bind more energy than travels into it because its energy level must turn lower than the energy that comes from the environment. The sigularity stores energy. If the energy level that the singularity can release turns higher. Than its environment. That thing starts to evaporate. So the question is not about how much energy is stored in the singularity. The question is about. How much energy can it release? When singularity releases its energy, it must have a higher energy level than the whirl it brings into it. Energy and material continue their spiral-shaped trajectory behind the event horizon. So the whirl around the event horizon continues behind the event horizon, and that spiral structure turns tighter and tighter. Without that whirl, the black hole will detonate. 

That spinning movement forms the whirl around it. And we see those whirls. Around supermassive black holes. As a spiral galaxy. This means that it's possible that the only existing black holes are spinning black holes. This spinning movement forms an energy transition in the singularity. Without that spin, the black hole would release energy. And that causes detonation. This means gravity forms when spinning particles bind energy, or quantum fields into them. That energy transports particles to those gravity centers. 

The mass is also relative to its environment and the gravitational field. Energy levels in energy fields are relative. To other energy fields, energy levels. Even if a black hole loses its mass, its environment loses its energy. And that means the black hole’s mass compared to its environment is stable. 

When we say that black holes oscillate, we mean that black hole sends gravitational waves. That doesn’t mean that the event horizon moves backward. The interaction means that the environment sucks those waves away from the event horizon. That means the point where the event horizon was before the gravity waves stays stable. 

The event horizon is the locked energy that surrounds. Something inside that structure. The distance of the event horizon from the core of the black hole is the Schwarzschild radius. Black holes spin, and that spin binds energy from around that thing. A black hole binds energy from its environment. And transforms it into kinetic energy. This process is one of the forms of gravity. The whirl, or the transition disk around the black hole, keeps that structure in its form. The whirl pushes energy to the black hole. Without that, the black hole detonates. When the universe expands, energy in that whirl turns lower. And that allows the black hole to send a gravitational wave. 

And then another layer in the event horizon takes the place of the shell that was left out of the event horizon. The idea in that model is that. The structure in the event horizon forms layers, which means the gravitational structure in the event horizon. Looks like an onion. The Schwarzschild radius is the distance to the point where the escape velocity reaches the speed of light from the singularity that exists in the center of the event horizon. Because the Schwarzschild radius is static until the singularity starts to lose its mass, the gravitational wave doesn’t decrease the black hole’s mass. The time that the whirl is separated from the event horizon is so short that this interaction has no time to reach the black hole’s core. But if that whirl is gone and the black hole cannot get energy. This causes the black hole to evaporate. And if a black hole is in a cosmic void, we would see that event as a detonation. 

https://www.britannica.com/topic/event-horizon-black-hole

https://as.cornell.edu/news/hawkings-black-hole-theorem-observationally-confirmed

https://www.livescience.com/physics-mathematics/quantum-physics/stephen-hawking-s-black-hole-radiation-paradox-could-finally-be-solved-if-black-holes-aren-t-what-they-seem

https://news.mit.edu/2021/hawkings-black-hole-theorem-confirm-0701

https://www.spacedaily.com/reports/Black_hole_merger_provides_strongest_evidence_yet_for_Hawking_area_law_999.html

https://www.universetoday.com/articles/black-hole-merger-provides-clearest-evidence-yet-that-einstein-hawking-and-kerr-were-right

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

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

Can dark matter transform planets or red dwarfs into a black hole?

 Can dark matter transform planets or red dwarfs into a black hole? 

"Black hole inside? Exoplanet observations could provide a new way to search for superheavy dark matter. (Courtesy: NASA/JPL-Caltech)" (Physics world, Exoplanets suffering from a plague of dark matter could turn into black holes)

Theoretically, any object in the universe can transform into a black hole. That means dark matter can form a black hole like visible matter. Dark matter can also play a role in cases where small red dwarfs or planets turn into black holes. There are no observations about those planetary-sized black holes. But they can exist. 

Theoretically, black holes' relativistic jets. Or supernova explosions can turn a planet’s atmosphere into super-high temperatures. And this can cause energy to flow into the planet’s or a small star’s core. And if the gravity field travels to the front of the shockwave, that can cause a situation where the object just vanishes. 

Dark matter that travels into the small object’s core can pull that core into form. There, the self-sustaining nuclear fusion can begin. The mass of the star should be high enough that the whirls and entropy cannot break the fusion core. If the star is too light and fusion starts, it blows the star’s shell out. And that pulls the fusion core larger, causing energy loss. 

If a star is too heavy, the fusion that starts in the middle of it can be too strong. And that blows the star’s shell outside. The loss of energy causes a different situation. Gravity pulls the shell back into its form. And then the star turns into a black hole, immediately when its fusion begins. In the cases of the heaviest nebulae, the nebula can fall straight into the black hole. 

When we think about the possibility that dark matter can transform a planet into a black hole, that can happen in two ways.

1) The dark matter can move into the planet’s core and pull it into a black hole. 

2) Dark matter can form a plague on the planet’s shell. In that case, dark matter annihilation, or other interactions, can form dark energy. That dark energy that travels into the planet’s core can cause an implosion, where a small reflecting wave can make a small vacuum in the planet’s core. The idea is that dark matter doesn’t let energy travel out from that object. That can cause the planet to fall into a form. That we call a black hole. 

When a star forms, the energy level in its shell must be higher than in the core. Then that outside energy pushes particles into the form that fusion can begin. If that fusion is too strong, it detonates the star. When fusion ignites, the star blows a little bit of its mass away, and that forms rings around stars. That forms the asteroid belts around our sun. And that flash can form the situation that some other stars around that star also ignite. 

New theory suggests that dark matter can transform planets into black holes. In the original text, only giant planets are mentioned. Maybe dark matter particles can also transform less massive objects into black holes. The idea is simple. Dark matter interacts with other dark matter particles or “units”. We don’t know what dark matter is, so we could use the word “unit” to describe the dark matter centers. In this text, 'dark matter particles' refers to the same concept as the 'dark matter units”. 

We must realize that the electromagnetic fields near the gravity center are weaker than the outer shell of that field. And that makes the energy travel into the gravity center, taking particles with it. So, the idea is that dark matter units or particles can make the group or cloud. If the massive dark matter cloud travels into the planet’s core, that thing can cause the planet to collapse into a black hole. Dark matter can be massive particles that can cause a situation where the planet falls into a black hole. 

But what is dark matter, or some kind of condensed material impacts things like red dwarfs? That kind of condensed material can pull lots of energy out from that star. There is a possibility that a red dwarf will follow the route of the dark matter beam that travels to the black hole. That dwarf star can collect the dark matter in its core. And that can cause a fall into the black hole. Another scenario can be that. 

Condensed material can pull lots of energy out from a red dwarf. That can cause a situation where the red dwarf turns into a very low-energy form. If the red dwarf loses its energy production and its core turns into a too-low-energy form, the red dwarf can fall like all other stars. But can its mass and energy turn that object into a black hole? In that case, the object cannot explode if the nuclear fusion doesn’t ignite during the fall. 

The idea is that the dark matter can increase the weight of the planet’s core. Then the energy increases the planet’s atmospheric energy level. The super-hot atmosphere put energy to travel into the middle of the planet. Another model is that a planet or a small star can lose its core’s energy level. And that makes energy and matter fall into the middle of the planet. In the same way, extreme conditions near the center of Milky Way-type galaxies can cause a situation where even red or brown dwarfs start to glow hotter than they should. In that model, the density of the dark energy can cause a situation where Dark energy can make small stars glow hotter than they should. 

Can dark matter be the thing that makes the smallest known M-type stars create self-sustaining nuclear fusion? 

The dark matter interaction can also explain. Why some of the smallest known red dwarfs can maintain nuclear fusion. The idea is that the small protostar can pull dark matter into its nucleus, and that thing pulls the nucleus. And starts the nuclear fusion. 

Conditions near the galaxy center or near black holes are extremely. When a planet or a red dwarf loses energy from their core and their atmosphere turns into very high energy, that thing can push those objects into black holes. We know that dark matter is not homogeneously spread throughout the universe. There are points where the dark matter forms denser structures than at other points. So if the planet or red dwarf travels into the dark matter cloud. It can start to pull dark matter into it. 

Dark matter behaves like regular material, and that means it positions itself into a planet’s core, or a red dwarf's core. That can cause a situation where that planet or a small star collapses into a black hole. The thing that can press even a small planet into a black hole can be a situation where a condensed photon beam takes all the energy from the planet’s core. Then the high-energy shell and atmosphere press the planet into the singularity. 

https://physicsworld.com/a/exoplanets-suffering-from-a-plague-of-dark-matter-could-turn-into-black-holes/

https://scitechdaily.com/can-dark-matter-turn-giant-planets-into-black-holes/

Little red dots and Eye of Sauron.

   Little red dots and Eye of Sauron. 

"Mysterious red galaxies from the universe’s dawn may trace back to rare, slow-spinning dark matter halos, creating extreme conditions that sparked rapid star or black hole growth. (Artist’s concept.) Credit: SciTechDaily.com" (ScitechDaily, Webb’s Mysterious “Little Red Dots” May Be the Cradle of the First Black Holes)

Little red dots at the edge of the Universe can be the shine of the first black holes in the universe. The dark matter puts those things to glow. There could be large skyrmions around those objects. When dark matter causes strong shockwaves around the universe. Maybe the dark matter halo forms high-energy radiation or dark energy waves around those objects. If that thing is right. Dark energy forms in dark matter interactions.  There can be so a high energy level in the dark energy radiation, dense material, and radiation fields around those black holes that the dark energy causes those fields to glow in red light. 

If that thing is true, those little red dots can open the mysteries of the Kugelbliz-black holes. Those black holes are predicted to form straight from the radiation. But how could that thing happen? The model goes like this. When two gravitational- or G-fields travel in opposite directions, that thing forms gravitons. Or, those opposite-direction traveling gravitational fields form whirls that form the gravitons. And then those gravitons start to pull each other. That thing forms more gravitons, hypothetical gravitation transporter particles, and when those gravitons travel together. That forms the kugelblitz-black hole. Gravitation is a wave movement. 

Miniature black holes can make interstellar travel and tractor beams possible. 

And that means those gravitons should be formed in the gravitational wave collisions, or maybe they form in whirls that form when two G-fields travel with opposite speeds. So, researchers can use the same models that were made for modeling hurricanes to model how those G-fields interact and how those kugelblitz black holes can form. The kugelblitz black holes are tools that can make interstellar travel possible. The black hole engine is a system where a black hole is in a chamber. And then the black hole’s relativistic jet pushes the craft ahead. 

The kugelblitz black holes can also make it possible to create the tractor beam. If somebody can control the miniature black holes in the chamber or control the direction of those black holes' relativistic jets, that person can create a tractor beam. The system turns the relativistic jet toward the target. And that makes those systems push things away. If the relativistic jet turns away from the object, the pulling effect of those black hole groups turns stronger than the pushing. But those things are futuristic visions. 

"Looking inside the plasma jet cone of the blazar PKS 1424+240 with a radio telescope of the Very Long Baseline Array (VLBA). Credit: NSF/AUI/NRAO/B. Saxton/Y.Y. Kovalev et al." (ScitechDaily, Astronomers Capture the “Eye of Sauron” Beaming at Earth)

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A glimpse into a galaxy’s core: Astronomers have captured a detailed image of the birthplace of a powerful cosmic jet. With its artificial colors, the view strikingly resembles the legendary “Eye of Sauron.”

The neutrino puzzle: PKS 1424+240 stands out as the brightest known source of neutrinos of its kind. Yet its jet seemed far too sluggish to account for the extreme neutrino emissions observed.

Magnetic spirals powering particles: After 15 years of careful observations with the Very Long Baseline Array, scientists have revealed the jet’s structure in unprecedented detail. The image shows ring-shaped, or toroidal, magnetic fields that act like a coiled spring, accelerating particles to extraordinary energies. This mechanism finally explains both the high-energy neutrinos and the gamma rays pouring from this blazar.

Eye of Sauron, or Sauron’s eye can uncover the secrets of black holes. And the key question is: can the black hole be the supersolid form of the gravitational waves? 

(ScitechDaily, Astronomers Capture the “Eye of Sauron” Beaming at Earth)

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Eye of Sauron is the blazar to which a relativistic jet travels straight to Earth. So we can see straight through that structure. These kinds of things can uncover very strong interactions near black holes and their material disks. The Souron’s eye can also uncover things about the Einstein-Rosen bridge. Researchers can also investigate how the relativistic jet affects time. 

And maybe those things can tell us. About the strange world near black holes. The black hole's relativistic jet and material disk can cause situations where stars and planets explode, or those things can also press a planet into the black hole. The black hole caused the supernova to detonate twice. And that thing can tell us about things like how black holes interact with their environment. Black holes are things that create the material disk around them. That material disk is a little bit similar to a skyrmion. Skyrmions form around extremely low-energy particles. 

"Artistic depiction of the explosive interaction between the black hole and the massive nearby star (blue). As the separation between the star and the black hole decreased, the black hole’s intense gravity pulled gas and dust off of the star into a disk. Before the star was able to swallow the black hole, gravitational stress from the black hole triggered the star’s explosion. Collisions between the stellar explosion and shells of material from earlier interactions located above and below the disk, powered a dramatic re-brightening event. Credit: Melissa Weiss/CfA" (ScitecDaily, AI Captures Once-in-a-Lifetime Supernova That Glowed Twice)

Can denying the particle’s evaporation change into wave movement, deny the form of the gravitational effect? 

Those particles are actually a Bose-Einstein condensate. When energy starts to flow to those particles, that thing creates an energy ring around the particle. That means a skyrmion is like the energy ring around the object. That causes an interesting idea about gravity. If we think that the black hole is a gravitational soliton, then there should be gravitational skyrmions somewhere in the universe. And when we think of the case where the light turned into a supersolid form, we can think that maybe somewhere in the universe can be a gravitational soliton. That kind of effect, where the gravitational field turns into a supersolid form, could explain why gravitation behaves as it does. 

When a black hole evaporates or sends gravitational waves. That thing makes a similar effect to what ice makes when it melts. When a black hole sends gravitational waves, it causes a situation where other fields are traveling into it. Without that evaporation, the black hole will not pull things inside it. When ice melts, that thing requires energy that travels to the ice from the air around it. Same way, black hole evaporation pulls or binds energy from around it. 

And that energy that travels to a black hole is the thing. That pulls particles and waves into it. Without evaporation, the quantum fields will not travel to the black hole. So if we transform the idea that material evaporation or turning into wave movement causes a gravity effect, we could deny that effect by pumping energy to particles. And denying their chance at a wave movement. If matter doesn’t vaporize, there is no gravity. This is this model’s idea. 

https://scitechdaily.com/ai-captures-once-in-a-lifetime-supernova-that-glowed-twice/

https://scitechdaily.com/astronomers-capture-the-eye-of-sauron-beaming-at-earth/

https://scitechdaily.com/webbs-mysterious-little-red-dots-may-be-the-cradle-of-the-first-black-holes/

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

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

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

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

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

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

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

Are the “red little dots” in the young universe so-called quasi-stars?

"By all rights, they shouldn’t exist. When NASA’s James Webb Space Telescope (JWST) first opened its eyes to the distant past, it spotted hundreds of tiny, brilliant objects glowing red in the infant universe — just 600 million years after the Big Bang. These “little red dots,” as astronomers came to call them, gleamed with such surprising brightness and density that they seemed to defy the basic rules of cosmology."Mysterious red dots may be a peculiar cosmic hybrid between a star and a black hole."(ZmeScience, The Universe’s First “Little Red Dots” May Be a New Kind of Star With a Black Hole Inside")

Little red dots are the first star-shaped objects in the universe. There is a new theory that those little red dots can be so-called quasi-stars. Quasi-stars are hypothetical star-shaped objects that get their energy from the black hole inside them. But can those objects exist in the universe where we live? Or could they exist only in the young universe? 

The hypothetical quasi-stars are star-like objects that get their power from black holes inside them. The idea in quasi-stars is that those black holes can lock particles around the event horizon, forming objects that look like stars. For a long time, researchers thought that the quasi-stars could be very large stars. But there is one thing that makes those quasi-stars more interesting than ever before. That thing is the primordial black hole. In models, primordial black holes can be very small and lightweight. Those low-mass black holes can be very small. Also, things like black hole relativistic jets can press even planets into black holes. 

In Einstein’s models, every particle or object can turn into a black hole. That means there can be very small black holes. The smallest possible black holes, called quantum-size black holes, are quarks or gluons that energy presses into an extremely dense form. In some models, those quantum-size black holes can be in your room. They are so small that they cannot pull particles inside them. But there is a possibility that things like ultra-heavy neutron stars can involve black holes. 

(ZmeScience, The Universe’s First “Little Red Dots” May Be a New Kind of Star With a Black Hole Inside")

The hollow neutron shell can orbit the small black hole. The neutron structure will be locked around the event horizon. That neutron shell can rotate the black hole in a “safe distance”. That kind of object looks like a massive neutron star. But it would involve a black hole. The existence of that kind of thing can be proven in the cases where the neutron star seems too massive. 

Those black holes can be grapefruit-sized, extremely high-energy objects. In some models, quasi-stars are not possible in our universe. Except for those things formed in the early universe. Or there is also the possibility that the low mass black hole can form a quasi-star around it if that thing is in the dense supernova remnant. But there is also a possibility that an extremely low mass black hole can form a planet-shaped shell around it. In that case, the water molecules or things like metal or silicone crystals can form ball-shaped structures around them. 

There is a possibility that some very hot red dwarfs or stars like Spica could be the quasistars. The thing is that the small, low-mass black hole can still lurk in our solar system. And there is a possibility that this exciting object can hide under the icy shell of some dwarf planet. That is the thing that can make the “ninth planet” exist and explain why it cannot be seen from Earth. So there can be something very massive lurking in our solar system. 

https://www.bbc.co.uk/newsround/49910160

https://blog.sciandnature.com/2024/09/little-black-holes-in-our-solar-system.html

https://www.livescience.com/space/black-holes/miniature-black-holes-could-be-hollowing-out-planets-and-zipping-through-our-bodies-new-study-claims

https://science.nasa.gov/solar-system/planet-x/

https://www.sciencealert.com/something-massive-could-still-be-hiding-in-the-shadows-of-our-solar-system

https://www.zmescience.com/science/news-science/the-universes-first-little-red-dots-may-be-a-new-kind-of-star-with-a-black-hole-inside/

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

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

https://en.wikipedia.org/wiki/Quasi-star

Cold material clouds near the center of the Milky Way can open new paths to cosmology and physics.

"High-resolution observations of the Milky Way’s Fermi bubbles have revealed dense, cold hydrogen clouds embedded within a superheated outflow, indicating that these colossal structures formed in a rapid, recent event. Credit: Stock" (ScitechDaily, “Impossible” Cold Clouds Discovered in Milky Way’s Heart Challenge Astronomical Theories)

New observations about cold material clouds near the Milky Way’s center are challenging astronomical theories. Or maybe they tell more about conditions in those extreme areas than anybody expected. The Milky Way center is a very high-energy area. That means the material should be hot near Sagittarius A. When researchers find something very cold near that supermassive black hole there is a possibility that something simply pulls or pushes energy through that material. 

If things like quarks or something similar small, weakly interacting particles travel through material that thing can cause the effect that those neutrinos, etc. will transport energy out from that material. So something acts like a thermal pump. 

And there is a small possibility that dark energy is the thing that turns those material clouds into cold. If we think about the cases of dark dwarf stars near the center of the Milky Way. Collect dark matter and make them impact or annihilate, those particles can send so much dark energy that it pushes visible energy out from those cold material clouds. 

"An artist’s depiction of the relative sizes of the sun, a low mass star, a brown dwarf, Jupiter, and the Earth. Sizes are to scale, but distances are not. Credit: Jupiter: NASA, ESA, and A. Simon (NASA, GSFC). Sun and Low-Mass Star: NASA, SDO. Brown Dwarf: NASA, ESA, and JPL-Caltech. Earth: NASA. Infographic: NASA and E. Wheatley (STScI)" (Phys.org, Dark matter could create dark dwarfs at the center of the Milky Way)

The dark dwarf can collect so much dark matter, that the impacts of dark matter. Or, weakly interacting massive particles, WIMPs happen so often that they send so much dark energy that it creates visible interaction between dark and visible material. If that is true of the dark matter particles, WIMPs’ impacts are the source of dark energy. And maybe that thing can change our view of dark matter and dark energy. 

Dark matter interaction through gravity is a well-known thing. That means gravity centers pack dark matter around them. The gravity centers like Sgr A* are the ultimate objects in the universe. That kind of ultimate gravity center can collect and pack dark matter into such a dense form that impacts between those particles happen so often, and they can create visible interaction with other objects and particles. This means that dark matter and dark energy also have some electromagnetic-style interactions with visible material. The only known interaction is gravitational. 

But the “shine” of visible material covers that interaction with it. Things like dark dwarfs are very dense objects that can collect the dark matter and its radiation into them. And there is a possibility that there is a dark dwarf near the center of the Milky Way that gets its energy from dark matter. The dark dwarf is the massive object that formed when a brown dwarf used up its fuel. This dark dwarf location near Sgr A* is also special. The dark dwarf pulls dark matter around it the another dark matter flow that Sgr A* pulls to it impacts that dark matter whirl. That causes impacts or even annihilation that turns dark matter very hot. 

And the ultimate high energy that Sgr A* sends can also interact with those WIMP particles. The model goes like this: the dark matter particles, hypothetical WIMPs, are so small that they send so short-wave radiation that we have no ability to observe that radiation. That means the dark energy can be a wave movement outside the gamma-rays. And if that is true it can open new visions for cosmology and space research. 

https://nasaspacenews.com/2025/07/dark-dwarfs-the-cosmic-clue-that-could-reveal-dark-matters-secrets/

https://phys.org/news/2025-07-dark-dwarfs-center-milky.html

https://scitechdaily.com/impossible-cold-clouds-discovered-in-milky-ways-heart-challenge-astronomical-theories/

What makes a black hole's gravity field so strong?

Above: A gravitational lens is a situation where the gravity field changes the direction of light. 

Black holes spin very fast. That spin conducts energy inside it. And black hole is like other gravity centers. It moves energy fields inside it. That makes the black hole so powerful. A black hole grows when it can bind quantum fields inside it. Spinning particle turns fields that bind into kinetic energy. When an object spins it binds energy in it. 

And it must harness or take that energy from somewhere. When an energy field is bound in some object, that means there must come other energy to fill that "hole". That thing creates a whirl that expands all the time. The outcoming energy field presses particles into a black hole or other gravity centers. And that outside energy keeps a black hole in its form. 

The thing. That makes a black hole's ultimate gravity field is the combination of electromagnetic shadow. And outcoming energy field. 

That shadow forms when particles like electrons, quarks, and finally photons orbit a black hole in the point called the event horizon. 

The outcoming energy field pushes those particles to the event horizon. 

When a black hole's mass rises it forms. A larger energy field around it. That forms a larger whirl. Because higher energy fields can interact over longer distances. When a black hole spins it transports outside energy into it. And that energy transports particles into it. 

The ultra-powerful gravity field around the black hole forms in the combination of electromagnetic shadow and gravity field that travels inside the black hole. When a black hole is separated from that field it causes changes in its entropy. And that makes gravitational whirls behind its event horizon. Differences in the strength of the outcoming energy field make the quantum points in the event horizon.

That makes energy travel horizontally in the black hole. In the event horizon energy travels mainly vertically straight into its core or into the center of the event horizon. But there is small turbulence in that thing that forms entropy. The entropy forms when those energy strings jump back when they impact each other in the middle of the black hole. But the energy level in those strings is not the same. And that causes wave movement in the black hole. 

That means. There is more energy. That presses the particles against that point. If that pressure is off those particles will fly away. The outcoming energy keeps a black hole in its form. In some theories, supercivilization can control the black hole closing it in the ball that denies its energy interaction. That causes an explosion. Or it pulls the event horizon outward and that increases entropy. That entropy detonates a black hole. 

"Representation of the gravitational field of Earth and Moon combined (not to scale). Vector field (blue) and its associated scalar potential field (red). Point P between earth and moon is the point of equilibrium." (Wikipedia, Gravitational field)

 A black hole is the ultimate gravity field. We see only the event horizon. The point where escaping velocity is the same as the speed of light. Or we cannot see the event horizon itself. We can see the point that is just ahead event horizon. In event horizons, the photons orbit the structure that is the most incredible that we can imagine. That point freezes information into it. 

If we are sharp, we can say that the event horizon is the point where photons start to orbit the gravity center. At the front of that point is the area where other particles like electrons and protons orbit that thing. So, there are circles around black holes there are particle groups like planets, molecules, protons, neutrons, and free quarks and finally photons can take stable trajectories. 

When a black hole pulls fields through those particles that thing pumps energy to them. That is one version of time dilation. When the energy level of those particles turns high enough they send energy waves. The event horizon is not a precise point. The photons that are trapped in it can have different energy levels. That makes them send wave movement. 

The outcoming energy field forms the shadow at the front of the particle. The black hole's gravity field is a combination of electromagnetic shadow and traveling fields that move everything with it. 

So, we normally think that the event horizon is the black hole's shell. But that's only the point. Where the light cannot escape from that structure.  Behind that point is the unknown world where gravitational turbulence dominates the interactions. The thing that makes the gravitational field around black holes so strong is that there is a double effect. The black hole pulls fields inside it. Otherwise, we can say that it harvests energy from its environment. That traveling energy field transports particles into a black hole. 

But the thing that makes this gravity effect so powerful is that the black hole also pulls fields inside it. Those fields impact with particles that orbit the black hole at the point of its event horizon and just ahead of it. That thing forms the electromagnetic shadow behind those particles and photons. That combination makes the ultimate gravity effect in the black hole possible. In regular gravity fields the gravity center pulls fields inside it. That effect cannot form electromagnetic shadow into the structure. 

When we think that a black hole stretches information into a form that looks like spaghetti or string. That thing means that the black hole's gravity field is not coherent. A black hole presses material so much that it cannot turn denser or take energy inside it. So each of those spaghetti strings is separated. Energy travels between those strings. And that makes the chaos or turbulence. And that internal energy movement causes entropy. Those superstrings can conduct energy out from the black hole. And black hole's internal turbulence or entropy causes those gravity waves. 

https://hubblesite.org/contents/media/images/2022/001/01FRKBDN5YKMM9ZMT5Q7TSN4RN

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

Gravity and entropy.

From the point of gravity model. The problem with this image is that. Both balls should have a pothole under them. Those potholes make energy travel between those objects. And that causes things like quakes in black holes. Energy that travels between gravity quantum points makes shockwaves around the entirety. 

Gravity fields form multiple gravity fields or sub-fields that form around individual quantum points. We see those things as entirety or coherent fields. But they form around multiple particles. That forms space and entropy in the gravity field. 

The problem with this image is that. Both balls should have a pothole under them. Gravity fields form multiple gravity fields or sub-fields that form around individual quantum points. We see those things as entirety or coherent fields. But they form around multiple particles. That forms space and entropy in the gravity field

Space between actors makes space in the gravity field. And that is the beginning of entropy. The actor that makes the gravity field is an elementary particle. And the gravity field that outsider sees. Is the sum of those actors' gravity. That thing means there is space between those fields. That space forms entropy. 

Quantum gravity means the electron's, quark's, and other particles' gravity field. The spin of the particle has a connection with its mass. The mass is conducted with gravity force. That means the gravity field's strength is the speed at which the particle transports or harvests energy inside it. When a particle harvests energy from its environment it transports the field inside it. That energy field transports other things with it. 

So time dilation forms when that energy impacts particles. That energy is like wind that transfers energy into those particles. That energy forms a quantum shadow that pulls particles with it. 

When we look at gravity fields, we might think that they are uniform. Gravity fields are not coherent. They form around multiple particles. The gravity field in the gravity center looks like whirls. Which means the gravity center is not monolithic. There are multiple gravity centers in the gravity field's center, so the gravity field is virtually coherent. When we think that mass, energy, and density are things that form gravity, we can make a model where the gravity field is like a whirl. When a particle starts to spin it bounds energy into itself. So black holes are only fast-spinning and very dense objects. 

When an object spins at a very high speed it forms an electromagnetic shadow or vacuum around its shell. Those shadows make the energy fields travel to that object. The dense object has smaller "hills" and "valleys" on its shell. Then less dense objects have. In this text, particle means single elementary particle like quark. The object means the group of quarks or other actors. 

The object can spin faster because it doesn't deliver as much energy into its space. The object turns into a black hole if it cannot deliver the energy that it harvests from its environment. So when the spinning object increases its energy level it will just harvest it from its environment. When an object spins faster and faster it forms an energy bubble around it and if energy that jumps out from the particle cannot cross that bubble it gets more and more energy. 

Energy in that bubble pushes particles or objects into denser and denser forms. So when the uneven things on the particle's or object's shell harvest energy into it, that thing makes a small channel through the energy field. And those things are things that form the gravity field. So we can make a model that gravity is the hole in the energy field. Those channels are like tubes or rubber hoses that turn closer and closer to each other inside the gravity center. They form a tight bundle that unites in the gravity center. There is always a small point in the ball there is no gravity. 

In the gravity field, every single object or actor has its own gravity field. That means gravity fields are multiple fields. Because the gravity field is not uniform or coherent that forms space in the field. And that space makes entropy. 

Quantum gravity has a connection with entropy. So, what does that mean in real life? That means the gravity field is not coherent. In gravity models, every single particle with mass has its own gravity field. So, gravity fields have multiple cores. Every particle in its entirety. Forms a gravity field around it. That gravity field can look like a whirl. That means there is free space in the gravity field. Those whirls interact with each other and that forms smaller and smaller whirls around those gravity fields. And those small whirls turn larger all the time. In that process, every single particle or actor in the gravity field transports a little bit of themselves to those whirls that look like fractals. 

 https://phys.org/news/2025-03-sneaky-clocks-uncovering-einstein-interacting.html

https://interestingengineering.com/science/quantum-gravity-einstein-entropy

New evidence: black holes are the source of dark energy

Black holes are candidates for a source of dark energy. Dark energy is the free energy or wave movement that rips the universe into pieces. And the thing that makes dark energy mysterious is that there seem no sources for that wave movement.  

Sometimes introduced that dark energy is the gravitational maser effect where crossing gravitational waves interact with other particles. And that causes the mysterious wave movement. At this point, I must say that those particles can be virtual. The virtual particle can be the whirl or wave in the gravitational- or some other wave movement. 

The thing that makes dark energy interesting is if its source is in black holes. That could mean that the secret of antigravitation can hide in the dark energy. 

Sometimes antigravitation is described as oppositely acting gravitational wave movement. And that makes the dark energy interesting. 

In some gravitational models, gravitation is formed when three quantum fields around the quarks cross each other. That thing forms the electromagnetic tornado. In that model, the gravitational tornado is electromagnetic low-pressure. And that pulls the particles or objects to each other. 

The idea of antigravitation is simple. The model of gravitational waves is that gravitation is radiation. And if those gravitational rays are hollow that forms electromagnetic low-pressure in that gravitational ray or channel. And those hollow radiation channels form the tornado-shaped radiation form where electromagnetic wave movement acts like a tornado. 

The source of antigravitation or pushing gravitation can be:

In the middle of the gravitational channel. 

Or at the edge of the gravitational channel. 

So what is antigravitation? 

Antigravitation is the effect where the repelling effect of the gravitational wave channel turns stronger than the pulling effect. The gravitational tornado sends gravitational waves from its edges. Gravitational waves are electromagnetic wave movements just like X- or gamma-rays. So if the gravitational whirl rotates at too high a speed that makes the pushing gravitational effect stronger than an electromagnetic vacuum can pull. 

One way to make antigravitation could be by sending some particles through those gravitational tornadoes. And that thing makes them repel objects. Or in some other models, if the speed of that whirl-shaped wave movement is high enough, that thing makes gravitational tornado pushing. In the last model, the gravitational tornado turns so small that the energy that travels from its edge turns stronger than electromagnetic low pressure in that electromagnetic tornado. 

It's the gravitational wave statue or small-size gravitational tornado where the interaction between the walls or edge of that tornado is stronger than the pulling effect of the electromagnetic low-pressure. 

In that model, the gravitation pushes and pulls at the same time. Gravitation is like a channel where is the shell that forming of superstrings (or extremely thin wave movement bites). 

The ratio of the inside of the channel to its edge determines does that gravitational tornado pull or pushes. If the edge is larger, or its energy level is so high that electromagnetic low-pressure cannot repeal it that makes gravitation push.  In that model, the antigravitation forms at the gravitational tornado's edge. 

https://scitechdaily.com/cosmological-coupling-new-evidence-points-to-black-holes-as-source-of-dark-energy/

https://artificialintelligenceandindividuals.blogspot.com/

Why are black holes twinkling?

The mystery of black holes is why they twinkle. Why black holes don't send gravitational waves all the time? That is one of the most interesting things about black holes. Black holes are extreme objects in the universe. And they should be stable. But there are moments when they send stronger gravitational waves than otherwise. 

There is the possibility that those twinkles are the reason for the case that black holes are sometimes in an electromagnetic vacuum. And the reason for that is that black hole pulls mass too fast. That thing causes an effect that black hole starts to send that radiation. 

But there is the possibility that there are particle pairs in the black hole. Those particle pairs form warp channels. Gravitational waves travel in those channels. 

In that model, there is the possibility that the gravitational waves that we can observe are forming when those particle pairs are orbiting each other. Those particle pairs act as the antennas that send gravitational pikes outside the black hole. 

Or maybe there is some kind of WARP bubbles or points where gravitational strings inside the black hole are not connecting. That makes the gravitational vacuum points in the black hole. And those vacuum points are causing a situation that the gravitational waves in the black hole are not following spiral tracks.

When those gravitational waves are touching each other in the black hole. That can cause the situation. There the Schwinger effect forms particle pairs. That means those particle pairs could be mysterious gravitons. If there is a gravitational tornado inside the black hole. 

The other gravitational waves are giving radiation emission to that tornado. That gives more power to that standing wave. That could explain why the black hole could send radiation pikes from its poles. The question is what is the point, where those waves are leaving? Is the source of the radiation that a black hole sends behind or at the front of the event horizon. 

The X- and gamma-ray impulses in the black hole's poles are causing questions about the speed of light in the black hole. Do researchers also hope that black holes give answers for the things like how many dimensions there are? Are there three in time and one in material? 

And maybe black holes are telling someday what is the form of time. Is time for some kind of wave movement that takes bites from the superstrings that are forming material? Or is time only part of the material? 

https://www.sciencealert.com/astronomers-studied-more-than-5000-black-holes-to-figure-out-why-they-twinkle

https://artificialintelligenceandindividuals.blogspot.com/

The gravitational waves from black holes give information about the gravitation's nature.

Could a lonely black hole form gravitational waves?

Could a lonely black hole form gravitational waves? When two black holes are orbiting each other their gravitational fields are disturbing each other. Another black hole will aim the gravitational waves in a certain direction. 

But when we are looking at the "lonely black holes" there is the possibility that intensive energy around them transforms particles around them into black holes. Also, some "lonely black" holes are binary systems. 

The reason why observing those smaller black holes is difficult, is that they are so small. And they exist only for a small moment. Those theoretical small black holes are forming near the event horizon or the point where escaping velocity reaches the speed of light of the central black hole. 

And then they fall into the larger black hole. These extremely small black holes orbit the larger black hole. Or otherways saying. The event horizons of black holes are connected. 

The thing is that also the small or quantum size black holes have event horizons. The size of the black hole doesn't matter. 

All black holes act the same way. They are like antennas that transfer gravitational radiation in one direction. 

If that case is true that effect can form a wormhole or Einstein-Rose bridge between that quantum-size and larger black hole. And in that case, there is the possibility that the smaller black hole acts as an antenna that aims gravitational waves away from the black hole. 

 Black holes are an extreme phenomenon. And in these kinds of cases, we should be very accurate. When we research things. That happens near that kind of object.

 Even if we are talking about errors less than a nanometer. Those errors can have a greater effect than we think if we are talking about black holes and their interactions. 

There are possible places where the black hole's gravitational waves can form. The place can be inside the event horizon or the point where escaping velocity reaches the speed of light. The gravitational waves are expected. To give a tip on how to make the opposite gravitation or antigravitation. 

So if the source of the gravitational waves is less than a nanometer from the event horizon. That means their source is outside the black hole. In this case, gravitational waves are coming outside the black hole. 

1) The source of those gravitational waves is inside a black hole.

2) The source of those mysterious gravitational waves may be the dark matter that orbits the black hole. 

4) The wave or quake in the event horizon makes it possible that the event horizon's place is changing. And then, the superstring or wave movement can flee from the black hole. 

5) In some theories, gravitational waves are the reflection. When gravitational waves that fall into the black hole impact with standing gravitational waves that thing causes reflection. Or is it possible that black holes cannot pull gravitational waves inside them? 

Could the extremely strong gravitational field reflect the gravitational waves from a black hole? The reason for that is the frequency of gravitational waves is always the same. And if another gravitational field is stronger that reflects other outcoming gravitational waves away. That means that black holes could pull only material and other radiation in them. 

But gravitational fields are reflecting away from them. The reason why that is possible is found in quantum theories. Energy always travels from the higher to the lower level. So black hole's gravitational field is so strong that it can cause a situation where gravitational waves are traveling in opposite directions than other radiation. 

And if radiation that has a lower energy level but the same frequency impacts with stronger radiation that causes reflection. The case where wave movement fronts with the same frequency impacts. Wave movement continues in a direction where wave movement with a higher energy level travels. And gravitation is similar wave movement to all other wave movements. 

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Antigravitation can be the reflection of gravitational waves. 

The place of those standing gravitational waves can be in the nucleus of the black hole or around the event horizon. If there is a standing gravitational wave around the black hole the maser-effect that is forming when intensive energy impacts standing gravitational waves. 

That means reflecting gravitational waves can form anti-gravitation. The idea is that impacting gravitational waves can form a wheel-shaped standing gravitational wave that denies gravitational waves flow inside it. 

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Could the source of gravitational waves of a lonely black hole be the dark matter that orbits a black hole? 

There is a possibility that intensive energy is near black holes interacting with dark matter that orbits black holes. Near the event horizon, the intensive energy interacts with packed wave motion, and that packed dark matter are forming gravitational waves. 

But then we must realize that there is also the possibility that gravitational waves are forming in black holes. Or around black holes where standing gravitational waves are reflecting from that donut-shaped gravitational effect that could orbit the black hole at the point of the event horizon. 

And they are escaping gravitational waves that the source is inside the black hole. There is a possibility that deep inside the black hole is forming a static high-energy gravitational whirl in the middle of the black hole. 

The energy of that hypothetical structure in the black hole is in gravitational form. So because that structure is forming standing gravitational waves it can push the impacting gravitational waves back. And then those gravitational waves can travel out of the black hole. 

In some other models, the gravitational waves are escaping from the black hole because there is forming a quantum-size black hole near the event horizon. The intensive energy can turn particles into black holes before they are traveling through the event horizon. 

In that case, the miniature black hole can form the point where gravitation is stronger than just behind the main black hole's event horizon. And then there is a forming situation where the smaller black hole can steal gravitational string from the main black hole. 

In the last model, the event horizon of the black hole just shakes. When the wave movement and material are orbiting the black hole's nucleus their speed and energy level rise to a very high level. That thing makes it possible. That material or wave movement that orbits the black hole's nucleus just behind the event horizon can flee to space. 

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