Quantum entanglement.

"Quantum teleportation is a method for transferring the quantum state of a particle or field from one location to another without physically moving the particle itself. It relies on a phenomenon known as quantum entanglement, in which two systems share strong correlations that cannot be explained by classical physics. Credit: Shutterstock." (ScitechDaily, Quantum Teleportation Breakthrough Sends 5 States at Once)

If we were to see quantum entanglement. Or, information is transmitted between two superpositioned and entangled particles. We would see two balls, and the thin yarn would connect those particles. When information travels between those particles. This event looks like a situation. Where the other yarn ball pulls a yarn string from another yarn ball. 

Einstein’s spooky action at a distance, called quantum entanglement. It is one of the most interesting phenomena in the world. The information travels between two particles in the string. And that makes it possible. That. Quantum entanglement can transmit information faster than the speed of light. That would be possible. If there is a possibility of removing entropy from around that string. This means that there should be something that removes the field from around the string that transmits information. The quantum entanglement creates. The quantum shadow, or hole in the field. And in that hole would be no scattering effect. 

Above: The wormhole, or at least an electromagnetic wormhole, might look like this. The energy string in the middle of it pushes the channel through the quantum field. The entropy in the wormhole. It will deny information. From staying in its form. The structure that transmits information in quantum entanglement. It might also look like this. 

This allows information travel faster than it does outside that tunnel. So a photon travels faster. In the quantum shadow between those particles. The speed of a photon is not unlimited. But. It's faster than outside that quantum tunnel. There is a possibility. To transmit information in the string or use the string. Quantum entanglement is used. To push the tunnel through the field. The electromagnetic wormhole will allow photons to travel faster than they travel outside that tunnel. So, the system can send photons through that tunnel. 

There is a possibility. That's the black hole. It is a group of qubits. This raises a question. About the problem. What if reseachers someday form the superposition and quantum entanglement that travels through the black hole? Could that thing be possible? Could quantum entanglement stand in the black hole?  The model of the qubits on the black hole’s shell is formed by the idea that the black hole’s event horizons are full of potholes and hilltops. Those things can be the zeros and ones in the qubit. 

"Encoded on the surface of the black hole can be bits (or quantum bits, i.e., qubits) of information, proportional to the event horizon’s surface area. When the black hole decays, it decays to a state of thermal radiation. As matter and radiation fall into the black hole, the surface area grows, enabling that information to be successfully encoded. When the black hole decays, entropy will not decrease, but rather will remain constant, as Hawking radiation is an entropy-conserving (adiabatic) process. How or if that information is encoded into the outgoing radiation is not yet determined.Credit: T.B. Bakker/Dr. J.P. van der Schaar, Universiteit van Amsterdam. "(BigThink, Ask Ethan: Can quantum entanglement survive a black hole)?

There is a possibility. That's the black hole. It is a group of qubits. This raises a question. About the problem. What if reseachers someday form the superposition and quantum entanglement that travels through the black hole? Could that thing be possible? Could quantum entanglement stand in the black hole? 

And can a particle stand the energy of a black hole? This depends on the side on which the particle spins. If the particle spins in the same direction as the black hole, it could survive. If the particle spins in the opposite direction, the black hole erases it. The thing that erases the particle is simple. When a particle suddenly switches its spin direction, it must stop for a while. At that point, the particle releases all its energy. If the particle spin is in the same direction as the black hole, the black hole just increases its spin speed. The thing that erases the particle is the change in the direction of the spin. 

The big question is: Can quantum entanglement bring information from the black hole? The black hole pulls all the information into it. There is a possibility that the superstrings. In the spinning black hole. They can turn. The energy flows opposite. But. Another way. It is to create a superpositioned particle pair. When the energy, or information, starts to flow into a black hole. The system can observe the particle that transmits information. The system must know how the information should travel between those particles. So, the system observes how transmitting particles offer information. And then it compares that thing with the real event. The event looks like a situation. There gravity rolls the yarn ball open. 

Can this thing work? Nobody knows. The quantum entanglement should pass. The black hole photonic and plasma halo. To reach the event horizon. When we think about black holes and wormholes. The wormhole can form between two superpositioned black holes. Or the black hole halos can form an electromagnetic wormhole if they turn into a superposition. This means that. Some kind of tunnel. Between two points is possible. 

https://bigthink.com/starts-with-a-bang/quantum-entanglement-black-hole/

https://scitechdaily.com/quantum-teleportation-breakthrough-sends-5-states-at-once/

https://scitechdaily.com/the-truth-about-wormholes-einsteins-bridge-may-rewrite-time-itself/

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

What if all we thought about dark matter is wrong?

   What if all we thought about dark matter is wrong? 

Above: Cosmic gamma-ray background.

So, what makes gravitational waves and gravitational fields move? That is the key question in dark matter research. There are suggestions that the gravitational effect that we know as “dark matter” can be quantum-sized black holes, or some kind of particles like axions. The problem is that nobody has seen any axion yet. And if somebody says that the still hypothetical free graviton particles are the thing that forms dark matter, the next question is: what are gravitons? Are they quantum-size black holes?

Gravitons are theoretical gravitation transporter particles. Those particles are things that cause gravitational waves moving. But another thing is that dark matter can be anything that we can imagine. The only known fact is this: there is some kind of gravitational effect whose origin is unknown. 

All four fundamental interactions are some kind of radiation. And each of those interactions has its own individual wavelength. Each fundamental interaction, gravity, strong nuclear force, weak nuclear force, and electromagnetism, has its own individual radiation type. 

Then we can think about the shape of materia. The particle is like a whisk. The strings that form the particle shell have a certain height. When a particle spins, it binds energy into it as kinetic energy. Sometimes a particle’s energy level turns higher than its environment. And in that moment particle sends waves. Those waves’ wavelength is the same as the particle’s diameter. But the height of those strings also causes limits in that interaction. Strings on the particle’s shell touch the field. Those strings are like flaps on paddlewheels. Their height determines the wave types that the particle can bind to. If those strings are high, that particle can bind a longer wavelength. 

There is one rule for interaction. Radiation or water must have access between those flaps. If the paddlewheel or propeller spins too fast, that causes an effect called supercavitation. The water has no time to fall between those flaps or between the propeller’s blades, which causes the paddle wheel or propeller to spin in a bubble. And that causes an interesting hypothesis. 

Could there be a particle that spins so fast that it causes supercavitation in the quantum fields? Can some particle spin so fast that it can make a cavitation bubble in the gravitational field? If that particle exists, that means gravitation will not affect that particle. Gravitation affects that particle’s quantum bubble. But it doesn’t affect the particle itself like other particles. If particle groups like hadrons spin very fast, their quarks can turn into a straight row. 

That spin can cause a situation where quantum fields or radiation travel to the axle of that particle row. And that can make the particle a hard target for observers. Fast spin can also throw radiation past the particle. This makes it invisible. But can that thing be possible with elementary particles? And can some particle throw gravitational radiation, or gravitational waves, past it? That causes an effect where gravitational waves slide over particles without causing interaction. But can this be true? Heaven knows. 

And in that case. Longer wavelengths. Like electromagnetism covers other, shorter wavelenght below them. That means electromagnetic force covers weak and strong nuclear forces. And gravity below it. If something pulls the G-field into something, that field pulls other fields to that particle. 

There is a possibility to press all parts of an atom into one entirety called a singularity. The reason why we cannot see the singularity is that its so smooth. Those superstrings on its surface are so low that they can bind only short-wave radiation. That means the particle will be surrounded by the standing gravity field. The singularity harnesses the G-field that transports other fields to the singularity.  How long will that singularity remain? As long as the outside fields can press that thing into one entirety. 

But there is a possibility that if the particle spins very fast. That causes a situation where longer wavelengths have no time to fall between those strings. That means the extremely fast-spinning particle drives fields past it like a stealth aircraft. The idea is that the G-field is the shortest wave radiation, and the fastest spinning objects can cause a situation where the only thing that can interact with that particle is the G-field. The G-field is the only thing that has time to fall between those strings. 

This causes another very interesting question. Can there be a so fast-spinning particle that even the gravity field, or G-field, has no time to fall between those strings? If that kind of particle exists. That would be the revolution for physics. 

https://www.space.com/astronomy/dark-universe/what-if-weve-been-thinking-about-dark-matter-all-wrong-scientist-wonders