Showing posts with label quantum teleportation. Show all posts
Showing posts with label quantum teleportation. Show all posts

Friday, May 2, 2025

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. 



Quantum Computing Coupler Art Concept

"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? 

Quantum Circuit With Strong Nonlinear Light Matter Coupling
"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. 


Quantum Entanglement Pair Art Concept

"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/

Tuesday, April 29, 2025

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

Saturday, April 5, 2025

Schrödinger's cat is hotter than ever.


"Quantum scientists have shown it’s possible to generate Schrödinger cat states in warmer conditions, challenging the assumption that cold is essential for quantum effects. Credit: SciTechDaily.com" (ScitechDaily, Alive, Dead, and Hot: Schrödinger’s Cat Defies the Rules of Quantum Physics)

Schrödinger's cat is a thought experiment about a cat. That is at the same time. Alive and dead. That means. The cat has two states. Things like qubits base are in Scrödinger's cat. And theoretical Majorana-fermion would be the Schrödinger's cat particle. 

The Majorana-fermion would be the physical particle that has a particle and antiparticle in the same particle. The Majorana Bound-state (Majorana Zero Mode) is the quasiparticle and a hypothetical Majorana fermion would be like a quark or electron that involves its antiparticle. 

In quantum computing, dead cat means qubit that doesn't carry information and alive cat means qubit that carries information. Or the dead cat means zero and the living cat means one. But the Schrödinger's state has many other interesting meanings. 

In physics Schrödinger's cat means superposition or quantum system that is simultaneously in the low and high energy minimum. A system that involves minimum. And maximum energy states at the same time. Is always interesting. 

The minimum energy states in the same system mean that if there is an energy impulse that hits the particle there is an energy pocket where that energy can go. In the same way, if Schrödinger's cat is the real cat we cannot destroy that cat, because there is an energy pocket where energy can go. 

The new observations tell us that Schrödinger's cat state is possible even if the system is adjusted into a "hot state". The temperature record in Scrödinger's cat state is 1,8K which is very hot in this case, that temperature limit has been 0,3K. That means Schrödinger's cat state is possible even if the system involves energy excitement. Before that researchers thought that they must remove energy excitement from the system. 


"In Erwin Schrödinger’s thought experiment, it is a cat that is alive and dead at the same time. Credit: University of Innsbruck/Harald Ritsch" (ScitechDaily, Alive, Dead, and Hot: Schrödinger’s Cat Defies the Rules of Quantum Physics)


Theoretically, teleportation is easy to make. The system must only make a quantum tunnel between particles. And if particles are superpositioned and entangled. An energy impulse will come behind the higher energy particle that pushes the particle to the lower energy state particle. The higher energy particle sends an energy string to the lower energy participant of the quantum entanglement. 

Information travels to lower energy particles. It's possible to teleport information. Theoretically, the same idea can be used to teleport more complex quantum systems. But the problem is this. For teleportation, the system must make a superposition end entanglement for every single particle. 

Then it must keep those particles in the right order. So the quantum channel. There that information travels must be tight. The universe's expansion causes the quantum channel to expand. That expansion forms space and that space increases entropy. Entropy is the thing that makes teleportation so difficult. 

Schrödinger's state is one of the things that makes, or it should make teleportation possible. The idea is that if there are two identical elementary particle clouds there another is in an extremely low energy state that causes an effect the lower energy particles just suck higher energy particles through the quantum channels or "shadows" to them. The problem with a complex system teleportation is that those systems must be perfectly superpositioned. 

That means that fermions and also bosons must all be put into superposition. Then they must travel to the right places. The thing that makes that very difficult is that the information must travel through the quantum fields. Those fields cause entropy that destroys the system. The problem is that successful teleportation requires. The system can transport particles, fermions, and bosons to the goal and keep them in their original places. 


https://scitechdaily.com/alive-dead-and-hot-schrodingers-cat-defies-the-rules-of-quantum-physics/


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


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

Wednesday, February 12, 2025

The Oxford researchers said. They archived teleportation between two quantum computers. 


The quantum neural network is similar to regular morphing neural networks. But the difference is that the quantum neural network the qubits or quantum computers make the network. That means the quantum neural network would be the fastest and the most powerful computing system in the universe that we can imagine. Data travels in that network in the form of qubits or quantum entanglements between superpositioned particles. 


That teleportation happened between two quantum systems. That happened without moving qubits. So the researchers shot information in the form of quantum tape. Or wave movement through the quantum channel. That helps to scale quantum computers. 

In old quantum systems, the qubits were unique. Quantum teleportation means that the data travels in quantum channels in the quantum entanglement. The data can travel faster in the quantum channel than outside it. That channel can be like an electromagnetic shadow between two particles. 

And that means quantum entanglement can be extremely fast. And secure data transmission method. The idea is that data travels in the qubit or in the quantum string between two points. And that makes it impossible to eavesdrop on those signals. Quantum computers are tools that will change computing. 

But they have one problem. Their power is so high, that only another quantum computer can check their calculations. The quantum computer can make calculations in hours, which the regular computer requires for the rest of the existence of the universe. The weakness of quantum computers is that. 

They have not been scalable. Scalable quantum computers can check their solutions. The quantum channel is one kind of wormhole. Those channels are the things that are cleaned from molecules and crossing electromagnetic fields. And that thing means that. Light travels faster in quantum channels than it travels outside them. 





The Einstein-Rose bridge or gravitational wormhole is only the most extreme version of the wormhole. Things, like nanotubes and Faraday cages can make electromagnetic wormholes where some side-coming electromagnetic fields are removed. That thing protects the quantum entanglements from outside effects. Quantum entanglement can exist only when another side of the entanglement is at a lower energy level. 

The only known thing that can create the stable entanglement is the low-mass primordial black hole. The idea is that the photon would be in frame and that hypothetical black hole would be behind it. Then the transmitting side starts the data transmission between two photons. The black hole behind the receiving photon pulls energy into it. And keeps the stable entanglement in its form. 

That system requires a black hole. That is not possible to get. But maybe in the future that technology is possible. 

When the system makes the quantum entanglement it traps two photons in opposite frames. Then the system makes them oscillate synchronously. Then the system starts the data transmission. There are problems in putting mode complicated systems like atoms into quantum entanglement. 

The system stresses some electrons that they send the photon. And then it puts photons in the superposition and entanglement. The system can freeze those photons on the atom's quantum field which is one way to make quantum teleportation. 

The thing that could help the existence of the quantum entanglement would be a super cold environment. The idea is that the difference between those photon's energy levels should be as high as possible. 

That maximizes the differences between energy levels in that quantum entanglement. There are two ways to decrease the energy level of the receiving part. The first way is to decrease the energy level before and the second is to decrease the energy level after the quantum entanglement is made. 

In the last one, the system pumps energy out from the receiving part of the particle pair when the quantum system starts to transmit the data. The problem is that the quantum system must control the vibrations and oscillations of those particles. And energy pumping can cause non-controlled vibrations. 


https://www.independent.co.uk/news/science/oxford-teleportation-quantum-computing-supercomputer-b2695851.html

https://www.sciencealert.com/teleportation-achieved-between-quantum-computers-in-a-world-first


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

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

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

Friday, January 24, 2025

Superconductors can make it possible to create new types of computers.


Theoretical teleportation is a quite simple thing. Developers must just push information in the quantum channel. And then they can transport it over long distances. The idea is similar to taking a tube and pushing paper in there using the rod. We can push the paper through the rod and then read the text that we wrote in there before we put it in a tube. But then we can see that the paper is not like the paper. 

That we put in the tube. There are wrinkles on that paper. Information is entirety. It contains paper and text. Text is significant information to us. And we don't normally think. The information changes when the paper turns wrinkled. The information form changes and that makes teleportation impossible. 

Or we can teleport anything. But the problem is that we cannot return information in the same form. That we sent it. The changes in information flow destroy the form of information. And if researchers can deny that change they can make real-world world teleportation machines.

The normal models of teleportation are made for homogenous, or monoparticle structures. In normal life complex systems involve multiple types of particles. And there is lots of space in there. The normal, natural systems are like cushions. And if we want to teleport natural systems we must push all particles at the same time. 


The problem is that the quantum channel is so small. And complex systems are like cushions that we try to push through the water hose. 


All systems involve multiple subsystems. When we look at as an example the ball pits every single ball in the system is an individual system. Every single atom, its electron shells, atom's core, proton, and neutron form an individual system that we can separate from the main system. That idea is the key element in quantum engineering. One single particle can pump the entire system through space and time if it can create the quantum channel between two systems. 

When information travels through the system it acts like a quantum-size thermal pump. The beam that travels through the system pulls quantum fields with it. That forms a situation where the beam or channel that travels through the system can pump it into it. Information that travels between systems travels in a so-called quantum channel. 

When information travels between superpositioned and entangled particles it can take large particles or systems with it. The idea is that if the system is between superpositioned and entangled particles the information pushes the system through the quantum channel if that effect continues long enough. The problem with quantum teleportation is how to remove outside effects from that quantum channel. In complex system teleportation, the problem is that the information should return to the original form. 

The universe is full of whirs. The size of the whirls is different. But the plasma whirl around the quasar looks similar to the quantum whirls around spintronics. It's possible to put the quasars into superposition and quantum entanglement. But that thing is impossible between plasma layers. There is too much space in plasma and that makes superposition and entanglement impossible between plasma layers around black holes. 

But it's possible to make superposition and quantum entanglement between two black holes. In superposition and quantum entanglement, data travels between two superpositioned particles in the quantum strings. That quantum string travels in a quantum channel. Does the information travel faster than light? No, but in the quantum channel information travels faster than it travels outside that channel. 

Pauli's exclusion principle means. That there cannot be two identical particles (or structures) in the same quantum system. The superposition and quantum entanglement mean that there are identical particles (or structures) in the system that oscillate at the same frequency. Those particles are not identical, because their energy levels are different. 

That causes a situation where information starts to travel between those particles. If that thing continues long enough the entire particle (or structure) travels through that quantum channel. 

The gravitational superposition means that a more powerful gravity field puts a less powerful gravity field oscillating in the same frequency. If we think of things like black holes the plasma around them can transmit information from their environment in that superposition. 

Superconductors are interesting things. They can form the smooth electromagnetic wave around them. This thing makes it possible to use them in quantum computing and other quantum technology. The problem with quantum technology is transmitting information through the system without artifacts. The artifact means non-controlled effects in the system.

And that makes it impossible to create quantum laptops. The non-controlled and non-predicted effect that is not measured makes it impossible to calculate that effect backward. The idea in this model is that the system removes energy levels of the outcoming effect. Normally that thing is easy if we think about things like mathematics. But in quantum systems, there are lots of energy levels in qubits that it must calculate. 

Quantum systems are making quantum entanglements by using quantum dots. The transmitting system takes touch with the quantum dots in the receiving system. Radiation acts like rods in the normal mechanical system. The qubits are like wheels and quantum dots are holes where those rods touch. The system will take touch with those quantum dots and take the receiving particle with it  That is one way to think about quantum computing. 

And why making the quantum entanglements with the room temperature systems is impossible. We can say that there are too small numbers of quantum dots in the system. Or there is too much empty space in a system that those quantum dots cannot put the system into superposition. The room temperature systems are like ball pits. It's possible. 

That the other system puts rods into that thing. But those rods just push balls away. So how to make the other ball pit rotate with the transmitting ball pit? The answer is that we can put water in the ball pits and freeze it. That makes it possible to rotate the ball pits using the rods. That is between them. 


https://scitechdaily.com/rewriting-the-rules-scientists-discover-new-superconductor-with-unconventional-properties/

Tuesday, December 31, 2024

Dark energy and quantum teleportation




Stargate. 


The idea of Stargate is that there should be a ring-shaped light wave on the frame. The system puts that light wave ring rotate very fast. Then there is a similar frame at the receiving side. The energy level of the receiving light ring should be lower. 

The energy level must be higher on the transmitting side. The system puts those light rings in superposition and entanglement. And that should make the quantum tornado between those two frames. 

Information travels between those superpositioned and entangled photon rings. The thing. What this system requires. Is energy. The system needs lots of energy to transport objects between planets and stars. So theoretically that system requires a black hole to focus enough energy into the frame that it can create a quantum tornado or wormhole. 

That is tight enough. That means the interplanetary system that transports people is far away in the future. But that system can make long-distance quantum teleportation true. 

In some theories, the superpositioned particles are the reason for the mystery called dark energy. In theories. There are 11 dimensions. And if there are two identical particles in the superposition and entanglement. We could send the transmitting particle to the higher dimensions. 

That means we could bring information to our third dimension by using that technology. In some theories, the energy that travels from the higher dimensions makes the thing that we call dark energy. Dark energy is energy that falls from the higher dimensions, and those dimensions can be in black holes.  

But then we can think about the superposition. And quantum entanglement. That is the key element in quantum computing. The requirement in quantum teleportation is that those particles or participants are in the same quantum field. In gravitation, the united quantum field forms a bridge between objects. Then the outside energy pushes those objects against each other. 

The superposition. and quantum entanglement are the case. Where information travels from the point. Or particle A to particle B through the quantum bridge. Energy and information always travel from higher energy levels to lower energy levels. 



The only thing that we must remember is this: those particles cannot ever reach the same energy level. That makes standing waves and destroys information. So what happens when two photons are put in superposition and entanglement? We can say that radiation makes the electromagnetic shadow that acts as an information tunnel between those particles. 

The photon is in the frame where it starts to rotate. That thing makes the electromagnetic spiral or tunnel between two photons that oscillate with the same frequency. The thing that limits the information transfer is that this tunnel is not tight enough. That means there are the energy fields like Hall fields through that structure. Those energy fields destroy the information.  

The thing that makes wormholes able to transport information through the universe is that it's so tight that outcoming energy fields cannot cross that structure. The thing that makes stable quantum entanglement possible is that the entanglement or information channel through those particles is long enough. The idea is that the quantum system transmits information in a vector-triangle-shaped form. 

The wormhole or energy tunnel. That this system makes must be so long, that the time itself keeps it open. The idea is that the system benefits the universe's expansion and should keep receiving part of the quantum entanglement in a lower energy level. The idea is that information will be transported through the light-years-long wormholes from the transmitting particles to the receiving particles. 

When we think about quantum teleportation the system that should teleport more complicated structures than single photons is basically possible. The system can make two identical quantum bubbles. Another one of those bubbles has a lower energy level. Then the system puts those bubbles into superposition and entanglement. Then the higher energy bubble pushes the object through that energy bridge. 

The spacecraft could make that bubble around it by exploding antimatter at the nanotubes in the craft's shell. Then there must be some system at destiny that makes the lower energy bubble. In some other versions, the spacecraft can have a fast-rotating electromagnetic field or photons (or some other particles) at its nose. Those particles should form electromagnetic tornadoes through the Higgs field. And those quantum tornadoes should pull craft forward. 

Friday, August 23, 2019

Quantum teleportation and nanotechnology brings quantum computers closer

Quantum teleportation and nanotechnology brings quantum computers closer

Nanomachines can be used as qubits

In the qubits, what are transporting data in the quantum computers has three values 0, 1 and 2. That means that those qubits can't be translated to data by simply cutting the electricity in the wires, but I will return that thing later. There are two ways to create qubits. One version is to create the molecule by using the nanotechnology.

This molecule would be a combination of the metal and some other atoms what are not conducting electricity. The mission of the atoms, what is between the metal atoms is to isolate them from each other. In this scenario, the "Y" shaped molecule would create the qubit in a very simple way.

But creating those molecules is quite difficult. One of the most promising version could be combined iron and some big sized atoms, and the magnet field would pull that molecule through the sensor, what detects the voltage or the position of that molecule.

 If one side of this molecule would touch the sensor or the gate the value of that molecule would be 0, if two heads of the molecule touch the gate, the value can be 1 and if the all heads of that molecule would touch the gate, the value of that molecule would be 3. This would be the nanotechnical version of qubits, and those molecules can be recycled.

The thing is that the molecule or later hydrogen atom must touch the gate for being registered. And that would make some problems for that kind of things. The value of the qubit would be determined with the level of voltage of those qubits, and if only one head of qubit touches the gate the voltage would be lowest. And the lowest voltage in that gate would be translated as 0.

Use of hydrogen atoms as the qubits

If we think about the short-distance quantum teleportation, we must realize that thing can move very small particles in the extremely high speed, or the speed what would ever reach before. And how this thing is connected with quantum computers. If we think the most complicated part of the quantum computers the forming qubits, the particles what are transporting data inside the computer and processors, we are facing the new opportunity for creating the system, what uses qubits as the information transporter.

The problem with qubits is that it has at least values 0,1 and 2 or even more, and the problem is that this kind of thing needs other ways to send numbers than just cutting the electricity of the wire. In normal bit computer, the system can just cut the electricity in the wire, and that causes the effect, where the break in the electricity, what takes a certain time is translated to 0. And in normal bits, there are two layers 0 and 1. But how we could create the qubit or particle, what has more levels than zero and one?

That thing would happen by using hydrogen atoms. If the atom comes to detector the electron ahead it, the atom would get value 0, if it comes to the sensor or the gate proton ahead, it would get 1 or if it comes that way, that both electron and proton would touch the sensor or gate in the same time, this data transportation particle would get value 2, what makes it operate as the qubit.

But the problem is that we cannot calculate the place of the electron when it orbits the nucleus sharp enough, that the hydrogen atom would reach the gate in a certain position. And that thing would be an extremely difficult and slow method to shoot hydrogen through the gate in the precise right time. But if we could stop the electron, while it orbits the nucleus, that thing would make possible to create the qubit. This thing means that we could simply shoot or transport the atoms through the gate by using extremely high speed, which means that the electron would not have time to move in the orbiter, while it would face the sensor.

So this sensor would be like the gate and the position of the hydrogen atom would determine the level of the qubit. This is one very interesting method to make the quantum computer, and if we could create the singularities across the microprocessor, that thing would make the moving those hydrogen atoms or qubits in the processor easy. But that thing would need little bit advantages, because of the system, where small size black holes are creating the wormholes would be hard to make.

Astronomers could have a model for why photons from GRB 221009A were at a high energy level.

"An illustration shows a photon from the biggest cosmic explosion since the Big Bang reaching Earth. (Image credit: Robert Lea (created...