Hunt for quantum black holes.

“Physicists found no tiny black holes at the LHC, but they just made the hiding place for new physics considerably smaller. Credit: SciTechDaily.com. Scientists have expanded the search for microscopic black holes at the Large Hadron Collider, looking for fleeting objects that could reveal hidden dimensions and clues to quantum gravity” (SciTechDaily, Scientists Hunt for Tiny Black Holes Hidden in LHC Collisions)

The LHC couldn’t create quantum-sized black holes. And one of the reasons could be that. It couldn’t create the energy effect. That could compress particles so much, or for so long. It can form those miniature black holes. If. Those tiny black holes formed. They evaporate immediately. This means. Maybe. Their existence lasts for less than a femtosecond. If they release gamma photons, those photons are hard to separate from other high-energy photons. Those quantum black holes will not produce many of those photons. And maybe. They evaporate just when quark-gluon plasma’s existence ends. 

Quantum black holes can be a source of dark energy. And they can also be dark matter. This model goes like this. Every fermion and other particle. With mass. Involves graviton. It is a kind of quantum black hole. That gives mass to those particles. 

The particle we see is the quantum field around it. In some models, particles like quarks are actually photons. They spin around their vertical axis. This means. Particles are like coins. That spin in a vertical position. And that makes them look like balls. If that is right, the mythical graviton is the quantum-sized black hole. The quantum pressure around galaxies keeps that structure in its form. But when. Those particles. Take more distance. 

The quantum pressure decreases. The quantum field around the quantum black hole expands. And escapes from around the quantum black hole. That causes immediate evaporation. That means those miniature black holes release the energy they store. That means the WIMPs are actually quantum black holes. When those black holes evaporate, they release energy. And that explains dark energy. But why. Is CERN so interested in those hypothetical particles? 

In Einstein’s time dilation models. The black hole transports information from the future to the present. Or, actually, black holes transport information from the future to a point in spacetime. Where. The black hole formed. When escape velocity equals the speed of light. Time starts to travel more slowly. When it reaches the speed of light, time stops. And when that thing crosses the speed of light. That. Causes a situation. Where time starts to travel in the opposite direction. 

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Antigravity is possible. If WIMPs (Weakly Interacting Massive Particles), gravitons, and quantum-size black holes are the same thing. 

If the graviton really is the WIMP. And the miniature black hole is a graviton. That causes the situation. Then antigravity is the evaporation of those miniature black holes. When. We think about the WIMP or miniature black hole as a gravity center. That means that. If. Those miniature black holes evaporate. That means that they release the energy that they stored. At the same moment. The gravity center. Those things that formed disappear. That theoretical engine could operate like this. The system creates WARP-bubbles using electron-positron annihilation. Then those miniature black holes will be shot into those miniature WARP bubbles. But that process requires that the system can create those tiny black holes. 

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That is one of the things that can make black holes interesting. The black hole formation happens. When escape velocity crosses the speed of light. So there is a possibility. That if. Reseachers can create a quantum-sized black hole and stabilize it. They could transport information from the future to the past. That opens new avenues for research. 

But there is another thing. That. Those quantum-sized black holes can make. Those things can create static quantum entanglement. This means that the quantum systems. They can put halos around those miniature black holes into superposition and entanglement. 

By using the quantum-sized black holes. Reseachers could make the “quantum yoyo”. That system can tunnel through materials. And. That system could transport quantum information through the walls. That system. It can revolutionize radar technology. In that system, the halos around those black holes can be put into superposition. Then the gamma rays anchor the transmitting black hole into the wanted position. And then that thing can transmit information to the sensor. Through. Quantum entanglement. 

But those quantum-sized black holes could make a so-called anti-gravity drive possible. The rocket engine pushes those quantum black holes backward. Then those systems create WARP bubbles. When. That kind of miniature black hole is shot into those short-term bubbles. They. Evaporate immediately. That means they release the energy that is stored in them. Also, if a graviton is the miniature black hole. The evaporation means that the graviton. The mass center disappears. And that means the gravitational effect is gone. 

The reason why CERN couldn’t make those miniature black holes could be simple. The system cannot handle the energy load. That is symmetrical enough. The system should create a so-called quantum implosion. That means it should press atoms or particles symmetrically. This means that the system should lock the quark precisely in the middle of the pressure. 

If. That pressure cannot input energy into the center. Quark symmetrically. The quark slips out of the energy pressure. There is a possibility. The oxygen atom in the fullerene molecule can be pressed into a miniature black hole. The system presses that atom into a singularity by exploding antimatter around the fullerene. Then that plasma pushes electrons and quarks. 

In the atom. In the fullerene, they collapse into one single entity called a singularity. This means. Those particles turn into one particle. Another. Possibility is that the LHC could create those miniature black holes. But they are so short-lived. That sensor didn’t recognize them. The LHC might not have enough time to trap energy. For. Long enough. It can press particles into the quantum black holes. 

https://scitechdaily.com/scientists-hunt-for-tiny-black-holes-hidden-in-lhc-collisions/