Quantum entanglement, and non-symmetrical quantum teleportation.

"A groundbreaking experiment captures the speed of quantum entanglement, paving the way for advancements in secure communication and quantum technology." (Sustainability-times.com/"Faster Than Anything Ever Seen”: Mind-Blowing Speed of Quantum Entanglement Measured for the First Time in Scientific History)

The new breakthroughs in quantum entanglement research can revolutionize this kind of technology. The ability to introduce quantum entanglement mathematically opens the roads to more trustable quantum computing. Quantum entanglement is the thing that carries information with incredible speed. Quantum entanglement is a prime element in quantum teleportation. 

In quantum teleportation, information can travel with incredible speed. The reason for that is this. When things like laser beams make the superposition and entanglement between particles they form the quantum shadow or quantum channel between those particles. That quantum channel is the "lightweight, or electromagnetic wormhole, channel through the quantum fields. 

"MIT scientists created a powerful new coupler that speeds up how quantum computers measure and process information. It could lead to real-world quantum machines that operate with far fewer errors. Credit: SciTechDaily.com" (ScitchDaily, Supercharged Qubits: How MIT’s Quarton Coupler Accelerates Quantum Computing)

Then the transmitting particle is at a higher energy level than the receiving particle sends a string through that channel. Information that travels between those particles travels in those strings. If we would see that information it's like wave movement in that string. 

The electromagnetic shadow is the reason why light can travel faster between those particles than outside that shadow. So the question is can we someday make teleportation for some devices or maybe even humans? 

"Researchers demonstrated extremely strong nonlinear light-matter coupling in a quantum circuit. Stronger coupling enables faster readout and operations using qubits, which are the fundamental units of information in quantum computing. Credit: Christine Daniloff, MIT" (ScitechDaily,  Supercharged Qubits: How MIT’s Quarton Coupler Accelerates Quantum Computing)

Things like quantum teleportation between protons and other complex, asymmetrical systems tell us that theoretically, teleportation is possible. If we want to teleport things like cars we should only make a string that is larger than the thing, that the system wants to teleport. So the car must fit into that string that should carry it from point A to point B. That is the great problem with teleportation. Making strings that are large enough, that thing requires powerful systems and dense materials can make the uniform string. 

There is the possibility that this kind of material exists only in black holes. In some visions, the spinning extremely dense materials can make the string that can transport complex systems and structures between two superpositioned and entangled particle entiretities. But the problem is this: the quantum entanglement forms between quarks or atoms. 

"Researchers have cracked a key mathematical challenge in quantum entanglement distillation, offering new hope for purer quantum states vital for quantum computing and communication. Credit: SciTechDaily.com" (ScitechDaily, Quantum Code Cracked: Scientists Solve 20-Year Puzzle Behind Entanglement Purity)

In that case, the system should make that superposition and entanglement between two entireties. There is the possibility that the system can make the energy bubble, like a soap bubble over the entirety. Then the system shoots laser rays over that structure. The energy beam stretches that energy bubble. And forms the channel between points A and B. Then the vacuum pulls that object through that channel. 

The second problem is where that energy balloon or bubble comes from. If that thing forms inside the structure it will crush it immediately. If we can make a ball-shaped energy field around the capsule that is powerful enough that thing could make complex-system teleportation possible. But those things can happen in the distant future. Today teleportation is only a theoretical thing. 

https://scitechdaily.com/quantum-code-cracked-scientists-solve-20-year-puzzle-behind-entanglement-purity/

https://scitechdaily.com/supercharged-qubits-how-mits-quarton-coupler-accelerates-quantum-computing/

https://www.sustainability-times.com/in-depth/faster-than-anything-ever-seen-mind-blowing-speed-of-quantum-entanglement-measured-for-the-first-time-in-scientific-history/

The groundbreaking experiment proved the proton quantum teleportation true.

"Researchers achieved 94% fidelity in quantum teleportation by enhancing nonlinear optics with a nanophotonic platform, solving major noise and efficiency issues. Credit: SciTechDaily.com" (ScitechDaily, From Sci-Fi to Reality: Single-Photon Teleportation Breakthrough)

If the image above introduces the two proton superposition that superposition is interesting. In the simplest model, the system can simply put the quantum field that surrounds those quarks into the superposition and entanglement. The three main particles that form a proton are the two up, and one down quarks. So the superposition starts between those down quarks and then it spreads into the the up quarks.

The down quark's energy level is naturally higher than the up quarks. That means those things can make the internal superposition in the proton. Because, energy travels out from the down quark to lower energy up quarks that are in the "Y"-shaped positions that deny the standing waveform in the proton. 

That means the nose-particle turns into superposition and then it transfers its oscillation into two other quarks. The problem is how to deny the standing wave formation in the proton. If that happens that blows those quarks away. There is also the possibility of putting two protons precisely in opposite positions to each other. Then the system can put those quarks into superposition and entanglement at the same time. 

The proton quantum teleportation is one of the most interesting things in the world. Data or information traveled between two protons. That makes this thing the new model for quantum computer's qubits. The proton-based qubits are interesting because protons are easier to control than photons. The problem with proton is this. The proton is a much more complex system than a photon. 

"The valence quark content of a proton. The color assignment of individual quarks is arbitrary, but all three colors must be present. Forces between quarks are mediated by gluons." (Wikipedia, Proton)

When the quantum computer loads data to the proton it simply makes waves into that particle's quantum field. Then laser transfers those waves into another proton. The idea is the same as in photon superposition and entanglement. When we talk about the superposition or Einstein's spooky action in the distance we don't mean that the particle itself is in two places at the same time. The superposition means that the system puts two particles oscillating in the frequency. 

That thing makes quantum networks possible. If somebody tries to steal information from the quantum entanglement that person must just cut the quantum string. Or if information travels in the particles that mimic neurotransmitters the intruder must touch the particle. And then it destroys information. 

So the system multiplies the dominating or transmitter particle's oscillation into another lower energy particle. The system shoots the laser ray over the transmitter particle. Then the transmitter particle sends a so-called quantum string to the receiving particle. That thing multiplies those oscillations to the receiving particle.

Or it transmits the waves that are on its shell to the receiving particle's shell, or quantum field. The quantum teleportation happens through the quantum channel. When a laser ray makes a quantum shadow on the other side of the particle that shadow pulls information into it. The requirement for quantum entanglement existence is that the energy level in the transmitting particle is higher than the receiving particle. The thing that puts limits on quantum teleportation is the quantum channel. 

The quantum channel must be tight enough that side-coming energy fields, so-called Hall effects, or Hall fields are removed. The Einstein-Rose Bridge called Wormhole can transport at least probes over extremely long distances. The wormhole is the whirl in the gravity field. The theoretical, but almost confirmed wormhole is one of the ultimate versions of the quantum channels. 

In those channels is the quantum low-pressure. That means there are fewer scattering fields and that means the light can travel faster in those channels. The thing that makes teleportation interesting is that the system can transfer information through the walls. The information travels in the electromagnetic, acoustic, or gravitational wormholes faster than outside that channel. 

When we think about confirmation of the existence of those wormholes we should look for extremely high energy particles. The idea is that the energy that pushes a particle forward is the thing that locks time in that particle. The wormhole is an extremely tight version of the electromagnetic wormhole. The particle or object travels in that channel with incredible speed, because it rides with an energy wave. That energy wave cannot travel past the object. Ahead of the object is the electromagnetic vacuum. 

The idea is similar when the object travels in the water tube. The water pushes that object forward. The thing that can prove the existence of those wormholes is the ultra-high energy ghost particles like neutrinos. If neutrinos travel in the wormhole, they cannot release their energy anywhere. 

That means the wormhole acts like a laser. The requirement is that the gravitational whirl's shell is at a higher energy level than the particle that travels in the wormhole. If a particle that travels in the wormhole has a higher energy level than the wormhole's shell that radiation destroys the wormhole. 

The idea of the wormhole is the same as the Tipler cylinder. The fast-rotating energy field pumps energy to the particles and probably objects that travel in the wormhole. The question is can the wormhole transport more complicated structures than neutrons and protons or information stored on their shell? If that is true teleportation can be closer than ever before. The teleportation machine can use atoms that it puts into the superposition and entanglement. Then those atoms or information will be conducted into the 3D printer that can print those objects over a long distance. 

Teleportation and visions. 

In some visions, the futuristic weapons use quantum teleportation to shoot the antimatter particles in the bunkers. 

And in the other visions, the quantum channels or superpositioned particles make it possible to make the engine that creates the faster-than-light exhaust gas. The idea is that the system puts two particles, particle, and antiparticle into superposition and entanglement. The quantum shadow or electromagnetic wormhole allows that information can travel faster than light travels outside that shadow. 

Then those antiparticles will travel through that quantum shadow. When the antiparticle impacts the particle in the absolute void. It sends a shockwave that travels faster than light in a short moment. The system can also make those impacts in the void that is less dense than the environment. That can make it possible to create exhaust gas that is faster than the speed of light. 

https://scitechdaily.com/from-sci-fi-to-reality-single-photon-teleportation-breakthrough/

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

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

Magnetism and quantum computers.

"Researchers at the University of Liège have developed a groundbreaking method to rapidly generate quantum superpositions, known as NOON states, using a combination of geometry and quantum control. This innovation drastically reduces preparation time from minutes to milliseconds, opening the door to practical applications in quantum computing and ultra-precise sensors. Credit: SciTechDaily.com" (ScitechDaily, Quantum Leap: Scientists Slash Atom Superposition Time by 10,000x)

Quantum computers are complicated systems. The quantum computer uses qubits for the data-handling process. Qubits are superpositioned and entangled particles to transport information inside them. Normally those systems use superpositioned and entangled photon pairs. The system traps photons in the frame. 

And then it starts to make the superposition and entanglements. That kind of quantum entanglement is quite hard to control because photons are so weak, that gravitational waves can affect them. 

That makes those qubits a little bit unstable. In a quantum computer, the system drives information into the particle, and then superposition and entanglement start to transport information between two superpositioned and entangled particle pairs.  

"Scientists have discovered over a dozen exotic quantum states using twisted molybdenum ditelluride, potentially paving the way for magnet-free topological quantum computers. Credit: SciTechDaily.com" (ScitechDaily, The Quantum Zoo Just Got Wilder: Magnet-Free States Discovered in Twisted Crystals)

"An illustration depicts an unexpectedly strong attraction between electrons in neighboring lattice sites within a 1D chain of copper oxide, or cuprate – a material that conducts electrical current with no loss at relatively high temperatures in their 2D counterparts. In a recent study, Stanford and SLAC scientists used X-rays to examine the behavior of pairs of spinons – quasiparticles that represent an electron’s spin. This experiment provides further evidence of an unusually strong attractive force not captured by the Hubbard model, the leading theory for predicting electron behavior in solids. Authors say the model fails to explain electron dynamics in cuprates, even in simplified, one-dimensional systems. Credit: SCI-HUA" (ScitechDaily, Superconductivity Mystery: Scientists Challenge a 50-Year Theory of Electron Behavior)

Things like atoms and electrons would be better particles for superposition and entanglements. But their problem is: how to protect those qubits against changes in a magnetic field. If the system can protect superposition and entanglement that makes it possible to transport information between those two particles.  

The new observations about magnetism make it possible to create new fundamental states of quantum technology. What if we could make the cylinder-shaped Hall field or Hall effect and control that field? If we, or researchers, can make the Hall effect that forms a field. 

That is slight inside. They can create a tube that protects the quantum entanglement inside it. The horizontal Hall effect is possible. That thing can make a new type of protective field that denies the internal disturbance. In some wild ideas, the Hall effect field can used as a Tipler time machine, or its quantum version. 

"Scientists have observed the anomalous Hall effect in a collinear antiferromagnet, defying conventional theories by showing it can occur without magnetization, potentially revolutionizing our understanding of quantum materials. Credit: SciTechDaily.com" (ScitechDaily, Rewriting Textbooks: Physicists Discover Anomalous Hall Effect Where It Shouldn’t Exist)

In that case the high-speed spinning magnetic field around the quantum channel. The idea is that The Hall field around those nanotubes will slow the time. In those nanotubes, the data travel between two superpositioned and entangled particles. If the fast spinning field surrounds those quantum channels that should cause time dilation in the nanotube. And that gives the quantum computer more time to operate. 

Another interesting thing is magnet-free states in twisted crystals. Those magnet-free states make it possible to create electron and atomic-scale quantum entanglements. The complex system entanglements can be the key to the new types of quantum systems. Information can travel between those two complex systems through their quantum fields. 

And if the system can make quantum entanglement using electrons or atoms it makes it easier to control those qubits. But the problem is the magnetic states. The system must protect those superpositioned and entangled particles against magnetic fields and especially against changes in the magnetic fields. 

https://scitechdaily.com/quantum-leap-scientists-slash-atom-superposition-time-by-10000x/

https://scitechdaily.com/the-quantum-zoo-just-got-wilder-magnet-free-states-discovered-in-twisted-crystals/

https://scitechdaily.com/rewriting-textbooks-physicists-discover-anomalous-hall-effect-where-it-shouldnt-exist/

https://scitechdaily.com/superconductivity-mystery-scientists-challenge-a-50-year-theory-of-electron-behavior/

The new quantum observations can mean a breakthrough in quantum computing.

Photonic computers are a medium between quantum computers and regular computers. In the stages the quantum computing the binary computer inputs data to a photonic computer. Then the system takes photons to frame and starts to make the quantum entanglement. The photonic computer uploads data to photons and then controls the quantum computers. 

An ability to make material magnetic using light is important for photonic computers. The photonic system requires some kind of bridge between the photonic system. And regular computers. The data that can be transferred from the photonic chips to regular mass memories must transformed into electric or electromagnetic form. The photonic computer can send data from photonic layers to regular computers using light. 

The quantum computers require extremely high accuracy. The system requires exact knowledge of the behavior of the photons that transmit information in the quantum entanglement. This is a problematic thing because the Heisenberg uncertainty principle means that we cannot quantify the precise place and speed of the particle same time. The particle has movement in the visible world. 

But when it releases energy, that is stored in it it causes the unseen but existent movement. That means the particle also moves between energy layers. For determining the precise place and speed of particles the system requires an independent measurement system. Each quantity has its own measurement system, and then the support system connects that data. 

"Schematic of entangled photons generated in a periodically poled stack of 3R-MoS2 crystals. Credit: Ella Maru Studios" (ScitechDaily, From Spooky Action to Real-World Tech: Columbia’s Quantum Entanglement Breakthrough)

Quantum computers require the ability to react to those changes.  That gives very high accuracy but it requires the ability to handle large datasets and react to them immediately. The support systems must have high-power calculating capacity. That they can react the right way. 

The fluxonium qubits are things that can make it possible to transmit data in the series. If the system can create multiple qubits very fast, that thing makes it possible to create the error detection for the quantum computers. The difference between answers means that there is an error. Error detection is a key element for error correction. 

Long-distance quantum communication requires the ability to transmit qubits through long distances. The problem is how to make the qubit keep its information. MIT's tests with highly accurate qubits can be the answer to that problem. In long-distance quantum communication, the system can pack information into particles like photons or some other piece. Then it shoots that particle through the quantum channel. 

The receiving system stops the particle and then transmits information to the receiving particle using superposition and quantum entanglement. That kind of system requires new types of data cables that are more like small nano-technical particle accelerators. The system can shoot the qubit particle through the nanotube. Or make superposition and quantum entanglement through those nanotubes. 

Long-distance superposition and quantum entanglement are the things. That is ideal but very hard to make. 

Nanotubes inside altermagnetic structures can make it possible to protect qubits over distances. Those systems can protect long and short-distance quantum networks. Short-distance quantum networks can operate using superpositions and quantum entanglements. In longer distances, the system can pack information into qubits that it shoots through the quantum channels. 

That means inside houses the data can move through the quantum entanglements and in longer distances the system can transport data in the form of a single particle. 

And maybe in the future data travels in nano-size particle accelerators in the form of long-distance quantum entanglement and superposition or in individual particles turned to qubits. Similar systems can transport qubits over long distances. The system can load data to the particle that is in the frame using quantum entanglement. Then that system can shoot the qubit forward. 

https://scitechdaily.com/100x-faster-light-powered-memory-thats-revolutionizing-computing/

https://scitechdaily.com/breaking-quantum-limits-mits-fluxonium-qubits-achieve-unprecedented-precision/

https://scitechdaily.com/from-spooky-action-to-real-world-tech-columbias-quantum-entanglement-breakthrough/

https://scitechdaily.com/how-beach-waves-illustrate-heisenbergs-uncertainty-principle/

https://scitechdaily.com/mit-scientists-just-made-a-material-magnetic-using-light/

Superposition and time.

The quantum teleportation between two particles. Under the common quantum field. That quantum field forms the channel between those particles. And that channel minimizes disturbance between those particles. 

Quantum entanglement and superposition are key elements for quantum teleportation. The Pauli exclusion principle says that there cannot be two identical fermions in the same quantum system. If there are two identical particles even in the same universe, that means sooner or later those particles make quantum superposition and entanglement. 

But anyway, those particles can be almost identical. The quantum superposition and entanglement require that another particle has a lower energy level. But there is the possibility. Those particles that oscillate in the same frequency make the quantum bridge between them. 

Then there is the information that travels from the higher energy participant of the quantum entanglement to the lower energy participant. When those particle's energy levels reach the same level. Those particles will jump away from each other. Theoretically, there is no limit for the range of the quantum entanglement. 

But before the quantum teleportation can begin those two particles must be inside the common quantum field. The quantum field is like a bubble around those particles. And if those particles are in the separated quantum fields that border destroys the quantum entanglement. 

When the system makes the quantum entanglement by making the quantum shadow, or lower energy area between those transmitting, and receiving particles it stretches the quantum field around the transmitting particle. That quantum field is like a soap bubble that should close the receiving particle inside it. In a long-range quantum teleportation, the system should put a row of the particles inside the same quantum field that unites them. That minimizes the artifact effect. 

"Entanglement and superposition may seem bizarre, but they ultimately give rise to stable realities like ours".(Interesting Engineering, Classical world naturally emerges from parallel quantum universes: Study) 

"A pencil-shaped ultracold gas of frozen two-level atoms interacting via photon-mediated interactions, with elastic and inelastic components. A continuous laser drive excites the atoms on-resonance. Atoms also spontaneously emit photons into free-space. Credit: Steven Burrows/Rey Group and JILA" (ScitechDaily, Breaking Quantum Boundaries: Atoms Defy Synchronization in Free Space)

"Researchers used simulations to support quantum findings. (Representational image) "Entanglement and superposition may seem bizarre, but they ultimately give rise to stable realities like ours".(Interesting Engineering, Classical world naturally emerges from parallel quantum universes: Study) 

Above: Cosmic microwave background. 

When particles are under one quantum field. That makes the condition where the photon can travel faster than the photon travels outside that quantum field or tunnel. 

Researchers can create quantum entanglement and superposition between simple systems like two photons. Theoretically is possible to transport more complex systems like atoms. But the problem is that. When an electromagnetic tunnel forms between two atoms. It pulls atoms in there. 

The thing that denies the atom broke is energy that comes from the back. That energy pushes the atom into the electromagnetic tunnel. So we can theoretically transport even complex atoms through that energy tunnel called a wormhole. The wormhole presses energy against those particles and denies their destruction. For making successful quantum teleportation there must not be any type of disturbance in that wormhole. 

But there is the possibility that in the strange quantum world, information can form spontaneously another, mirror information. In that information whirl time travels backward. But if that mirror information is somewhere, what would be the name of that structure? 

That somewhere might be the opposite universe. The opposite- or mirror universe means the spacetime where the time travels backward. The idea is that when the particle makes the quantum superposition entanglement can form between the two ultimately complex quantum systems by one particle after another. So, in this model, the other universe forms particle by particle. 

Some researchers think that the mirror universe where time travels backwards would be the reason for time. When time travels forward in transmitting participant superpositioned and entangled universes that means the time goes backward in the receiving participant of those universes. 

The thing is this: if that antiuniverse exists the universe where we live is the transmitting participant. And the other universe is the receiving participant.  The reason why we cannot see another universe is that information can travel in one direction in the quantum entanglement. 

When we think about the simple systems that are easy to put in superposition and make entanglement between them. We can say that simple systems like energy fields can be a very large thing. It's possible to make quantum teleportation between two points by surrounding an object with an energy bubble. 

Then there is another energy bubble that oscillates with the same frequency but whose energy level is lower. There should be a bridge between those bubbles. And then the lower energy bubble pulls the object through that energy bridge. That principle can make the quantum teleportation possible also for complex structures. 

https://interestingengineering.com/science/classical-world-from-parallel-quantum-universes

https://www.sciencealert.com/quantum-teleportation-achieved-over-internet-for-first-time

Can entangled particles exchange information faster than light?

When researchers put two elementary particles into superposition and entanglement. Researchers just make them oscillate synchronously. Information travels from the higher-energy particle to the lower-energy particle. And when a particle's energy levels are the same that forms a standing wave between them. 

That destroys the quantum entanglement. The requirement for quantum entanglement and superposition is that those particles are identical. The superposition is possible between two photons. But it's not possible between photon and electron. Superposition between simple systems like two photons is an everyday operation. Complex systems mean systems like baryons. There is more than one particle and that makes it hard to control. 

The superposition between complex systems like protons can happen by putting their down-quarks into superposition. And then the energy and information will flow between those two systems. The proton is the system. There are two up and one down quarks. 

And if the superposition is made between down quarks, that makes information possible to escalate to those up quarks through the proton's quantum field. It is also possible to put the two down quarks into superposition. And that makes it possible to create a quantum processor that is smaller than an atom. 

When the system starts to make the superposition it aims electromagnetic or acoustic waves to the transmitting side. First, the system drives information to the transmitting side. That system puts the receiving part in the opposite position. The system aims a laser beam at the transmitting particle. And laser beam forms a quantum shadow between those particles. That thing makes information travel between those particles. That system can be two frames where there is a trapped photon. The frame inputs data to the photon. Laser puts those photons in a superposition between receiving photons. 

But can information travel in superposition faster than light? The answer is yes and no. When the system makes the superposition it just makes a quantum tunnel between those particles. The tunnel forms when the laser beam starts to make the superposition.  Information can travel faster than usual in that quantum tunnel. But the photon is always the fastest particle. In that quantum tunnel or quantum shadow photons can travel faster than outside that tunnel. 

https://phys.org/news/2024-12-entangled-particles-communicate-faster.html

The Schrödinger's cat: how to turn living creature into the quantum world?

"In quantum mechanics, Schrödinger's cat is a thought experiment concerning quantum superposition. In the thought experiment, a hypothetical cat may be considered simultaneously both alive and dead, while it is unobserved in a closed box, as a result of its fate being linked to a random subatomic event that may or may not occur. This experiment viewed this way is described as a paradox. This thought experiment was devised by physicist Erwin Schrödinger in 1935  in a discussion with Albert Einstein to illustrate what Schrödinger saw as the problems of the Copenhagen interpretation of quantum mechanics." (Wikipedia, Schrödinger's cat)

Scrödinger's can or cat which is time living and dead same time. Is the model that dominates quantum theories. That model means that the particle can exist and not exist. When we know about the existence of the cat, the cat lives. The existence in the quantum world is not an absolute thing. The knowledge of the existence turns particle existent. But we can be sure about that existence only when we see that thing. Or we can be sure about the cat's existence when we touch it. 

The simplest version to return the cat back to life is to make a clone of the cat. Then if the cat has the neuro-implanted microchip that stores the memories from the cat. This allows it to take the EEG and then transfer its memories to the clone. That requires the knowledge of the position of the memory cells. The thing is that we know that also other tissues than neurons participate in the memory process. And then that makes this process difficult. 

Or. If we want to return the dead cat to life we must reactivate the cell membrane and ion pumps. Replace the leaked liquids and then transfer the mitochondria and give them power. That could return that cat to life. And that makes "it possible" to create the Frankenstein cat. 

The thing is that information that made the cat exist after it's gone. Nothing can destroy information. The information can turn so small bites and it can spread those bites to so large areas that we cannot put them back in their original form. And one of the reasons is that those information bites are spread to other information bites. So it's hard, but not impossible to find those information bites. And collect them back into one piece. 

"Schrödinger's cat: a cat, a flask of poison, and a radioactive source connected to a Geiger counter are placed in a sealed box. As illustrated, the quantum description uses a superposition of an alive cat and one that has died."(Wikipedia, Schrödinger's cat)

It's possible that this model can be used to return destroyed particles back to existence. The hypothetical "Frankenion" particle can be created by storing its oscillations in a certain energy state and environment. Then if that "Frankenion" is an elementary particle. That thing means that the system copies the environment and energy states where that particle is measured. And then it transfers the recorded oscillations into those particles. That allows us to make a copy of that particle. 

All particles whose size and depth are limited have a limited number of information. That means information that creates limited particles and space is limited. 

When we think about the material that lost all its energy. That means the material turns into a 2D material or wave movement. Theoretically is possible to push energy back to the particles and return their shape into a 3D model. 

Theoretically is possible to return divided neutrons to their form. And if we think about things like quantum entanglements that will be broken, the information that the superpositioned and entangled particle exists after the superposition is broken. Theoretically is possible to fix the string of those superpositioned and entangled particles. The requirement is the thing that researchers find the right particles and the right superstrings. Theoretically, they could use a quantum-size black hole to make that thing. 

If the cat is dead that thing is meaningless. We know that once there were cats. But now there is a statue that lost its life. The statue is only a shell of the substance. The cat's existence can also be virtual. If we just imagine that cat. We can say that its existence is virtual.  The virtual object can cause changes to our behavior. That thing means that even if we imagine. That there is a cat in the room, we might be careful. We might be afraid that we let the cat away. 

That cat's statue or filled cat pulls people to it. The people want to know why that cat is dead. 

If we think that the cat is locked in the box, like in the image of the Schrödinger's cat we face the model of the locked position in that image. The cat is in the box. It cannot get out because it has no immune system, There is food but sooner or later the radioactive element sends a radiation burst, that activates the system and opens poison or a bomb in the chamber. That is the model of the locked position. If we touch that particle it loses its energy. That means we cannot touch the locked particle if we don't want to make a change to its position. 

The thing that we can call the cosmic Scrödinger's cat is the black hole. The massive gravitational field locks the black hole into its position. That thing exists. But same time it does not exist. Existence requires interaction. And black hole interaction is one-way. The Scrödinger's cat is also the model of the third type of material that can exist in both, main states of the material. That third material would not annihilate when it touches the antimatter and matter. 

We can say that the superstrings are the third form of matter. Those things can form both antimatter and regular material. And if that third material is possible to create that allows to store of antimatter safely. That is one thing that can be Scrödinger's cat in the material world. Or the cat itself is material. But how to transform a living creature into the quantum and elementary particle's world? 

Maybe we can say that when a particle transports important information. That particle exists. When that particle loses its information. Its existence ends. That means the particle turns meaningless. And that means the particle exists and does not exist. Same way as some sand bites that exist on the road. The sand bites exist, we know them. But we don't notice them. 

https://en.m.wikipedia.org/wiki/Schrödinger%27s_cat

A new type of quantum sensor can see inside atoms.

 

"Nuclear physicists have discovered a revolutionary way to use the Relativistic Heavy Ion Collider (RHIC) at the U.S. Department of Energy’s Brookhaven National Laboratory to gain insight into the shape and details of atomic nuclei. This method involves using particles of light that surround gold ions as they travel around the collider, as well as a new type of quantum entanglement that has never been observed before". (ScitechDaily.com/New Type of Entanglement Lets Nuclear Physicists “See” Inside Atomic Nuclei)

The superpositioned and entangled particle pairs can form a new type of quantum system. Those particle pairs can form the miniature doppler-radar that can detect things. That has been invisible before. The superpositioned and entangled particles can also use to scan subatomic particles and the atom's internal structures. 

The idea of quantum sensors is that they are acting like full-scale sensors. But the size of those sensors is far smaller than regular sensors. The thing is that theoretically two electrons or two superpositioned and entangled photons can form doppler radar antennas. In the same way, the line of hovering electrons can form the SAR radars. 

Doppler radar is two antennas that detect the change in radio waves. That system is one of the most common in use to measure an object's speed. Scanning doppler radar means the system there antennas are rotating each other. 

Above: Doppler-radar

Above SAR (Synthetic Aperture Radar) -radar's principle Credit:NASA

"Left: Scientists use the STAR detector to study gluon distributions by tracking pairs of positive (blue) and negative (magenta) pions (p). These p pairs come from the decay of a rho particle (purple, ?0) — generated by interactions between photons surrounding one speeding gold ion and the gluons within another passing by very closely without colliding. The closer the angle (F) between either p and the rho’s trajectory is to 90 degrees, the clearer the view scientists get of the gluon distribution. Right/inset: The measured p+ and p- particles experience a new type of quantum entanglement". (ScitechDaily.com/New Type of Entanglement Lets Nuclear Physicists “See” Inside Atomic Nuclei)

"Here’s the evidence: When the nuclei pass one another, it’s as if two rho particles (purple) are generated, one in each nucleus (gold) at a distance of 20 femtometers. As each rho decays, the wavefunctions of the negative pions from each rho decay interfere and reinforce one another, while the wavefunctions of the positive pions from each decay do the same, resulting in one p+ and one p- wavefunction (a.k.a. particle) striking the detector. These reinforcing patterns would not be possible if the p+ and p- were not entangled. Credit: Brookhaven National Laboratory" (ScitechDaily.com/New Type of Entanglement Lets Nuclear Physicists “See” Inside Atomic Nuclei)

The SAR-radar or synthetic aperture radar is the system that is put in the moving platforms. That thing allows us to create an antenna that's dimension is very big. And the SAR technology makes it possible to create very sharp images from targets because the radar scanner's accuracy depends on the size of the antennas. 

The scanning tunneling microscope can use as quantum radar. The idea is that. The researchers can replace ions, which hover above the layer with electrons or even photons. Two hovering ions can form the antenna for miniaturizing radars. 

In quantum technology, doppler radars can create by using two electrons that hover above the layer. The wave motion that is sent to those electrons can turn them into the smallest doppler radars. That ever created. Series of small needles that hovers series of electrons that can scan layers with incredible accuracy. 

But also, there is the possibility to use superpositioned and entangled electrons or photons. Then the atom will transfer between those superpositioned and entangled particles. The superpositioned and entangled particle pairs can also use miniature doppler or SAR radars. And that kind of system can revolutionize radar technology. 

https://www.capellaspace.com/sar-101-an-introduction-to-synthetic-aperture-radar/

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

https://en.wikipedia.org/wiki/Synthetic-aperture_radar

https://shorttextsofoldscholars.blogspot.com/

The interesting thing in quantum entanglement is the string that connects superpositioned particles.

The centripetal force acts in all particles. And if the rotation speed is high enough, that thing causes the situation where even elementary particles are forming the channel. 

Quantum entanglement is one of the most useful phenomena in the quantum world. In that "spooky effect of distance," the system puts the elementary particles (like photons, quarks, electrons, etc.) to oscillate in the same frequency. That means the same elementary particle is at the same time, in two different positions. 

Also, things like electromagnetic fields can put to superposition. When two elementary particles are superpositioned and entangled that thing happens by using electromagnetic fields like laser rays. Photon or electron clouds are also forming electromagnetic- or quantum fields. And those things can use to put even complicated quantum systems into superposition. 

Theoretically, superposition is possible also between quark groups. And theoretically, things like protons, neutrons, and other kinds of elementary particle groups can be superpositioned. So theoretically, also complicated quantum systems can put to superposition. 

But the thing that makes superposition interesting is that. There forms a string or wire between those superpositioned particles. And that string makes them act like some stick. When another particle at the end of that stick is moving the another will also move. 

But what is that string that connects those two particles? There is the possibility that the film where the water bubble spins and stays in its form illustrates that situation. 

Could there be a channel through black holes?

When a particle spins very fast that motion should form a channel through it. But if we want to make a channel through an electron. We must spin that particle at an extremely fast speed. So could black holes spin so fast that they can form a channel through the singularity? In that model, the fast spin of the object causes the situation where centripetal force pushes the superstrings away from its axle. The centripetal force could rip also quarks and leptons in pieces. 

But it requires an extremely fast spin. If those channels through elementary particles are true, they can offer limitless energy solutions. That means there is a quantum vacuum in the middle of particles that is acting like those bubbles in the water drop. And if there are small quantum lightning or strings between those particles those strings can collect energy from the quantum fields. 

When radiation or wave motion, which mission is to duplicate particles hits the primary particle it increases the spin of that particle. There is a possibility that there is a forming tunnel through that particle. And that tunnel forms a quantum tornado through space. When that quantum tornado impacts another particle, it will start to oscillate it. 

But is that string some kind of wormhole? That is an interesting question. If we think that there is a hypothetical transporter particle graviton, that transports gravitation, there is the possibility that the tunnel through electron or quark forms between hypothetical gravitons. If there is a graviton inside all particles, which have mass. The extremely fast spin will create a tunnel that unmasks the graviton. 

That thing causes interesting speculations of black holes. When we think about the possibility of the superposition of things like stars. We must understand that superposition is possible only between similar elementary particles. And superposition between quark stars is possible because those hypothetical stars consist only of quarks. 

Also, the black holes can turn into superposition. The spin of black holes is extremely fast. And that thing can cause a situation where superstrings or gravitational channels. That forms a situation where singularity can turn to the side from the rotation axle. 

In that case, that thing could form a channel through the black hole. But that thing is only a hypothetical model. The thing behind this model is that centripetal force affects all systems. And theoretically, even elementary particles can break into bites by spinning them fast enough. 

https://miraclesofthequantumworld.blogspot.com/