The new solution turns universal quantum computing closer.

   The new solution turns universal quantum computing closer. 

"Artist’s impression of the entangled logic gate built by University of Sydney quantum scientists. Credit: Emma Hyde/University of Sydney"(ScitechDaily, Scientists Unlock Quantum Computing Power by Entangling Vibrations in a Single Atom)

"Physicists at the University of Sydney have achieved a breakthrough in quantum computing by creating a universal logic gate inside a single atom." (ScitechDaily, Scientists Unlock Quantum Computing Power by Entangling Vibrations in a Single Atom)

The ability to control and entangle a single atom’s internal vibrations makes the next-generation quantum gates possible. That makes it possible to create identical data flows in the quantum gates. 

Researchers created an entangled quantum gate between complex systems. And that can be the key to the new universal quantum computing. Researchers had one problem with quantum computers. That is how to create the quantum gate that controls the information in the qubit. The difference between quantum computers and binary computers is that. Information is connected with particles in quantum computers. That means in the quantum channel, particle-form photons transport information. 

And that makes it hard to create the gate for the system. The gate, or logic gate, is the base element in computing. It uses diodes and transistors to make Boolean functions. The problem with the quantum gate is that. The system should handle data. That is connected to particles. 

Regular diodes and transistors cannot handle particles. That makes those systems very complicated. Quantum gate must handle data. That travels in the quantum bridge between superpositioned and entangled particles. So if the system pulls the quantum bridge through the system that uses quantum transistors and diodes. One version is that the quantum diodes and quantum transistors can store information that a superpositioned and entangled particle sends to the receiver. Then the system creates another superpositioned and entangled particle pair. But that requires time. 

“The general definition of a qubit as the quantum state of a two-level quantum system.” (Wikipedia, qubit)

Another problem is the error control in the quantum computer. “Using a powerful error-correcting system known as the Gottesman-Kitaev-Preskill (GKP) code — often called the “Rosetta Stone” of quantum computing — they managed to entangle vibrations of a trapped ion. This achievement drastically reduces the number of physical qubits needed, tackling one of the biggest hurdles in scaling quantum computers and bringing practical, large-scale quantum machines closer to reality.” (ScitechDaily, Scientists Unlock Quantum Computing Power by Entangling Vibrations in a Single Atom)

Entangled quantum gates are things that offer a solution to that problem. The idea is that the system splits a qubit into two parts. 

Then those entangled gates transport information into two separate quantum channels. If those channels get the same solution. That means the answer is more probable, right than wrong. If those channels get a different solution, the other answer is wrong. The key element in that process. Data that travels in those channels must be identical. There is always a possibility that an error in the data form occurs at the input stage, where the system writes data to the qubit. Detection of that kind of problem is difficult. 

The qubit can have multiple states or levels. Every single state of the qubit can be put into superposition and entanglement separately. 

 And if we think of the superposition. With 20 states, we can share information between those states. The information can be doubled, and the edge can be between states 1-10 and 11-20. Then the system splits the qubit into two parts.  Those states can turn into the strings that transport information in binary form. So, in every state, the qubit still has values 0 and 1. That means a quantum gate is basically similar to an electronic gate. But it must handle data. That is stored in the quantum states. 

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

https://en.wikipedia.org/wiki/Gottesman%E2%80%93Kitaev%E2%80%93Preskill_code

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

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

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

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/

 

How can researchers handle noise in quantum computers?

The biggest problem with quantum computers is noise. The quantum noise forms when the quantum system oscillates randomly. The random oscillation makes it impossible to control systems. That oscillation makes standing waves or non-controlled effects. 

When data travels in qubits, we can think that each state of the qubit is like a string with two positions 0, and 1. When a qubit transmits data it takes that data on it like yarn ball layers. The difference between yarn balls is that each layer is separated. Then it sends those layers to the receiver. 

Or if we think of the qubit as a ball that is like a planet we can think dayside as 1 and night side as 0. Or if we think of the qubit as a ball that is like a planet we can think dayside as 1 and night side as 0. The problem is: how to make that ball turn in the right positions at the right moment. 

 There are billions of ways to make the qubits. Or if there are energy valleys and energy hills on the particles. The energy valleys can be 0 and hills 1. The are billions of ways to make the qubit. 

In some texts, the quantum computer is described as a voltage meter. Certain voltage level gives value 1 and below that level is 0. The decibel meter or photocells can also act as measurement tools for qubits. 

The acoustic qubit can mean that the ultrasound gives a value that is 1 and the infrasound is 0. In the decibel meter, a certain sound level is 1, and below a certain sound level, the value is 0. 

This thing is like a C-cassette but it's much smaller. So the quantum computer looks a little bit like a spinning machine. The spools are photons. And the yarns are electromagnetic strings. The steel or iron wires can theoretically act as a qubit, but it requires the oscillation to be under control and this is the problem. 

The electricity travels on the surface of the wire. There is the possibility to make a quantum channel that protects electricity against the outcoming effect. So if the wire moves and data stays in a stable position on the wire that can help to solve the problem that the Hall effect or resistance causes. The problem is in that thing is this. Researchers can protect the wire against vertical disturbance. But the problem is in vertical disturbance. 

Data or information can travel only from higher, to lower energy levels. That means the other end in the quantum lines or quantum tracks must be at a higher energy level. The system must keep the transmitting side of the quantum computer at a higher energy level. And the computer must be protected against EM. And other types of radiation. The answer can be that the data will be transmitted to the quantum computer at room temperature. Then the system will be frozen and the data handling process can start. 

There is the possibility to use laser-  or acoustic beams to make the data transmission possible between transmitters and receivers. Those beams clean the route for data carriers. 

The system can form a so-called wormhole or whirl through the quantum gas. That whirl involves a vacuum that denies the scattering effect. 

Or the quantum computer must be put in the vacuum chamber there the mechanical noise that the atoms cause is minimized. Also, things like seismic waves disturb quantum computers. 

Things like the scattering effect destroy data. The hollow laser beam that travels in a nanotube can protect photons that transmit data. The main problem with laser beams is that they are not monotonic. 

Laser beams form when particles that are stressed by light send radiation. The particle must store energy before it can send radiation. So there are small breaks in the laser beam. Those breaks allow the outside energy field to fall into that quantum channel. 

Photonics and qubits.

Photonics is a new science. Researchers make some new things almost every day. To that new, interesting science that offers limitless possibilities. The two-photon technology can mean. The photonic version of the scanning tunneling microscope. The other photon is in the frame. And the other photon hovers above the object. When another photon hovers near the surface. That causes interactions in those photons' quantum field. And that makes it possible to scan the atom's internal structures. Quantum systems require the ability to see things that the system can make interactions. 

That means the system that sees the position of things like electrons makes it possible to create Rydberg states in atoms with ultimate accuracy. Another thing is that this kind of system can increase the power of the quantum data transmissions. The system can create hollow laser beams. And then shoot the photons their data is stored in this quantum channel. The quantum channel protects information in the quantum channel. 

But quantum computers can be more advanced. If the system can use superconducting wires to transport information. The information can travel in the superconducting wire. Or it can transported between two superpositioned and entangled photons that hover in that quantum field. In the last version, the quantum field protects data in the quantum channel. 

What if we create a system where the wire moves and data stand in a static place or point on the wire? The thing in room temperature quantum computers is that. 

The Hall effect or resistance destroys data in the wire. But if the system stores data in a static point and moves that point. 

That eliminates the Hall effect. So the idea is that the wire moves and the data stays in static lace in the wire. 

"The general definition of a qubit as the quantum state of a two-level quantum system." (Wikipedia, Qubit)

The quantum computer is very close to the analog computer. We can think of the superposition and quantum entanglement we can think of that system as a C-cassette-style component. The difference between this system is that the system writes data to tape. Then it transports that point to the receiver. Then the data is in the static point. The moving tape moves data to the receiver. 

It's possible to load information row to line into the C-cassettes or series of C-cassettes and then drive that data to the receiver. It is easier to use individual tape for each quantum state. Those cassettes can benefit nanotechnology. 

We can think that qubit's states are strings. Every string has values 0 and 1.  So, theoretically is possible to create a qubit using the line of microprocessors. That means the computer line can used to make the virtual quantum computer.

Quantum computers can store information in the DNA. In that chemical version, the base pairs A, T, and G, C can be 1 and 0. ( (AT) =1 and (GC)=0) or every base can be the individual state of the qubit. A=1, T=2, G=3, C=4. In that case, the pair numbers can be 1 in those states. And pairless can be zero. The electric impulse that tells if the computer will shut down. 

The system writes the data to tape. And then tape transports that point into the reader that transports data to output.  But can that kind of analog computer be the quantum computer simulation or the quantum computer that can operate at room temperature? 

There is a model where the very thin iron wires can store data. Then those iron wires move that point in them into the receiver. The idea is that the wire that moves can keep the information in its original form. The problem is that the resistance, or Hall field destroys the data structure that travels over the wire. But what if wire travels and data stands at the same point? The idea is that wire travels between two points. The writer writes data to the wire. And then the wire moves that point like a tape recorder to the receiver. 

https://scitechdaily.com/a-million-qubits-within-reach-as-microsoft-redefines-quantum-computing/

https://scitechdaily.com/scientists-just-cracked-the-code-to-supercharge-quantum-networks/

https://scitechdaily.com/seeing-the-invisible-world-scientists-decipher-two-photon-vision/

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

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

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

How to store data in quantum computers?

 

There are two ways to store data in quantum computers. They are different from each other. But they are both useful and they have their benefits. 

1) The data can store in the qubit. That thing requires that the qubit must be in a very stable environment. That storing the data is possible. The long-term storage of data is difficult. The reason for that is that the qubits are extremely sensitive to outcoming radiation and electromagnetic noise that destroys the data structure from the qubit. 

But if data is stored in the form of a qubit that data is ready to use right away. And those qubits can hover between the graphene layers for use in quantum computers. 

In error-detection systems, error detection can happen by using two quantum computers. There are two quantum lines and qubits will duplicate and then send to those lines at the same time. 

Then those computers will first compile the answers between those two data handling lines. And then they can compile the answers that different computers get. If there are no anomalies that thing makes sure that the answer is right. 

Or when the copy of the transmitted qubit is sent to the receiver. The receiver sends the checksum to the transmitter. Then the sender checks, that if the data is identical. If data is matching, nothing affected the qubit. While it travels between sender and receiver. So the data that is sent has maintained its shape while it traveled in the quantum channel. 

2) Data can store in the binary mode. The idea is that each layer or the state of the qubit will drive to the regular hard disks. So if we want to store 5 state qubits, we need five databases where the information from each layer or state of the qubits is stored. 

And the computer requires instructions on how to return those databases to qubits. Each of the databases must have a number that determines where each database must dump. So as an example database number three will be driven to the third layer of the qubit. 

So where to use those data storage models? 

The quantum computer might have two types of memory short-term memory or so-called fast operating memory. In that system, the qubits are a suitable way to store data. And the binary form of the data storage can use for long-term data storage. 

Short-term data storage is needed in error-tracking systems. The data will store in qubits when it will send to the quantum system. And in that process, the quantum computer takes the copy of the qubit. Then it sends the data to two quantum lines at the same time. Then that system compiles the answers. If there is a difference in those solutions. There is the possibility that something affects the qubit. 

But the error correlation system might also use binary storage. Of course, data like algorithms can store in binary mode. But there is the possibility that there is something like a heavy eruption of the sun. Or some strong gravitational wave that can disturb the qubit. 

There are developing systems. That can warn quantum computers about that kind of threat. But the AI-based system can also make it possible that the sensors like gravitational wave detectors and solar eruptions warning systems can send the warning to the quantum computer.

 And that thing makes it to back up the data to the binary storage. Storing data is important in the case,  that there is some kind of environmental anomalies. The quantum computers are the equipment of tomorrow. And they are advancing all the time. 

Quantum computers are taking the place of the number one simulator in the world.

  

Image 1) 

The image above this text portrays an advanced quantum computing system. Some of the quantum computers of tomorrow can use simply multi-channel radios. For their internal communication. In that system certain channel is a certain state of the qubit. And also the strength of the radio signal can determine the state of the qubit. That means a certain energy level is a certain state or level of the qubit.  

The thing that quantum computers are more effective tools to simulate and test quantum mechanics than binary computers is no surprise. The power of quantum computers is so superior that they can make the same calculations that take months by using binary computers in seconds. Quantum computers are the ultimate tools for creating new types of materials and enzymes, and they can map the DNA. 

And quantum computers can also use to control plasma at the fusion reactors. The thing is that quantum computers can also control nanomachines. The AI that is used to move nanomachines can run on the quantum server. That allows operating billions of nanomachines at the same time. Quantum computers can also control the data on the internet. And they can search and detect malicious code. 

The new solutions in nanotechnology require complicated AI software. And the power of quantum computers makes it possible to drive hard and complicated code and connect the data that is collected from sensors. 

The bright future of quantum computer-based AI means that when the number of the quantum computer increases their prices will get lower. The error detection in quantum computers is a similar process to binary computers. The system uses two or more data handling lines. And if those lines get the same result there are no errors. 

Image 2) Bacteriophage

Quantum computers operate with nanomachines by using similar WLAN systems with regular computers. The communication with WLAN systems will happen through binary computers that transform qubits to radio impulses. The thing is that by using the multi-channel radios. Is possible to send data in the form of qubits. In that case, every channel is a certain state of the qubit. And that makes the WLAN more effective. 

The nanomachine can be the genetically engineered bacteria that are controlled with microchips. The system can use bioelectricity or nano-size batteries for creating energy for those microchips.  The nano battery can be a virus where is small gold bites in the feet. When that gold hits with lead or some other base metal that gives electricity. That means the nanobatteries can create electricity also from hemoglobin. 

Image 3) Microchip on graphene.

The small-size or nanotechnical microchips require a new type of power source. The problem with nano-size microchips is that they need an extremely well-calculated energy level. If the electricity level is too high. That means the electric flow will jump over the switches. 

The newest microchips can create energy from graphene. That system captures the energy of the thermal movement of graphene. And that thing allows using that system also in the dark places. The IR radiation is one way to make the energy for that system. But there is the possibility to connect that graphene with miniature resistors. 

Or it can connect with living cells. When those cells will get nutrients their temperature will rise. And the thermal movement of graphene can cause by all possible thermal sources. That thing can use to control the nanomachines. If some medical nanomachine operates inside the human body it requires the WLAN system to communicate with computers.

https://scitechdaily.com/quantinuum-h1-quantum-computer-beats-classical-system-at-game-designed-to-test-quantum-mechanics/

https://www.thebrighterside.news/post/physicists-build-circuit-that-generates-clean-limitless-power-from-graphene

Image 1)https://scitechdaily.com/quantinuum-h1-quantum-computer-beats-classical-system-at-game-designed-to-test-quantum-mechanics/

Image 2)https://en.wikipedia.org/wiki/Bacteriophage

Image 3) https://www.thebrighterside.news/post/physicists-build-circuit-that-generates-clean-limitless-power-from-graphene

The vibrating atoms are the new type of qubits.

Image 1) "MIT researchers have found a way to store quantum information in the vibrational motion of atom pairs, similar to the swinging motion of two pendula, connected by a spring. The quantum register contains hundreds of pairs of vibrating qubits that researchers can coherently control for over ten seconds. Credit: Sampson Wilcox/RLE" (ScitechDaily/MIT Physicists Have Discovered New Qubits for Quantum Computers Using Vibrating Atoms)

The time that the quantum computer can keep the superposition is the primary element in its speed. When the superposition is lost the system must re-adjust. That means the superposition must remake. The superposition of the vibrating atoms stays about ten seconds. And that thing is fundamental for quantum computing. Image 2 is the material that I mentioned in the past text. A laser ray that is pointed to the line of specific atoms can create atomic vibration. 

Image 2) (Phys.Org/Scientists weave atomically thin wires into ribbons)

Do you know, why there are used so uncommon material in quantum annealing systems? The thing is that the annealing system means that certain atoms are stressed by electromagnetic radiation. That makes them send radiation in their specific frequency. 

And if those atoms are not very common. That makes it easier to separate their annealing. From the "white noise". And that makes the system more accurate. But rare elements that can give unique wavelengths of radiation are expensive. 

Image 3) Atom superposition demonstration." MIT physicists find that pairs of atoms can hold a superposition of two vibrational states. Like two swinging pendula, the atoms can move in sync, and against each other, at the same time, making them robust qubits for quantum computing. Credit: Courtesy of the researchers." (ScitechDaily/MIT Physicists Have Discovered New Qubits for Quantum Computers Using Vibrating Atoms)

The vibrating atoms are making it possible to make flat and powerful quantum processing units. And that is a road to make quantum computers more common than they are today. Quantum computers are revolutionary machines that have abilities that are never even thought of. They can use to drive complicated AI solutions that are making analyzing the DNA easier. 

The fact is that quantum computers are turning more common. More people can use them. And that increases the power of those systems. 

More users bring more money. The investments bring more scientists for working in those quantum computer projects. And the thing is that the newest quantum computers are created by using the simulations driven on the quantum systems. 

And they are useful to make simulations of everything from cosmic formations to the actions of enzymes. Those systems can control drone swarms. And they can create new types of medicines. Also controlling nanomachines inside the human body is not more difficult than controlling drone swarms in nature. 

The fact is that quantum computers would not make cryptology useless. The thing is that the governments would just turn to use quantum computers for code making. And another thing is that code-breakers will also turn to quantum age. And they will start to use quantum computers to hack the codes that are made by using quantum computers. 

https://scitechdaily.com/mit-physicists-have-discovered-new-qubits-for-quantum-computers-using-vibrating-atoms/

Image 1) https://scitechdaily.com/mit-physicists-have-discovered-new-qubits-for-quantum-computers-using-vibrating-atoms/

Image 2) https://phys.org/news/2022-01-scientists-atomically-thin-wires-ribbons.html

https://thoughtandmachines.blogspot.com/

The IBM Unveils 127 qubit quantum computer.

That quantum computer is a big step to making fully commercial quantum computers. And those quantum computers would open new and bright visions for military and civil purposes. Quantum computers can hack any code that is made by using binary computers. And that thing means that they are causing a need to remake the entire security of the Internet. The history of quantum computers would repeat the history of binary computers. 

At first quantum computers are the systems that are locked at the calculation centers. But then they will turn to every-man machines and perhaps quite soon the regular personnel computers will turn to quantum computers. Things like programming language for quantum computers are bringing more users to them. The new programming language for quantum computers is making them easier to use. 

And user-friendly applications like AI-based code translators are bringing quantum computers to more users. That translator means that well-known computer code like C++, Python, or Jave can turn to quantum computers. And the new quantum programming language will benefit the abilities of the quantum systems. So while we are waiting for the personal quantum computers we can use quantum systems remotely. 

That thing makes it possible. That users can rent the time from the quantum computer centers. And that thing brings more money to the quantum computer projects. More projects and more solutions are bringing the quantum systems more common. But also more powerful and more multi-use. 

Quantum computers are only platforms. The abilities of quantum computers are determined by program code. And those systems might make the revolution in the civil and military systems needed to handle big entireties. The fact is that nobody expects that portable quantum computer have the same capacity as data-center-based fixed systems. 

In the same way. We don't think that a laptop is the same way powerful as a supercomputer.  But when we remember the advantage of supercomputers in the early 1980's systems had 1 mt. memory. We can say that modern laptop are far ahead of those computers. And the same thing will happen with quantum computers. 

The quantum network is at the door. The idea for the nanotube-based quantum network took from the nuclear test "Ivy Mike". 

When the first full-scale thermonuclear weapon detonated at the Marianna archipelago radiation from that bomb was conducted to the sensor by using a vacuum tube. That allowed those particles to reach the sensor before the particles that are traveling in the air. And that made it possible to observe the particles that were released from the hydrogen bomb. 

The quantum wires will protect against outside radiation effects. And then those nanotubes will be covered by electromagnetic fields. The electromagnetic fields are the thing that is covering the qubit against outcoming effects. The qubit could be an electron that rides with the laser rays in those nanotubes. So that thing makes it possible to create a system that connects quantum computers by using qubit-based connections. 

The quantum network can be a series of nanotubes. There might be a laser ray and a powerful electromagnetic field around those tubes. The purpose of those things is to minimize the outcoming errors that are affecting the nanotube. There would be an absolute gas vacuum in that tube. And that makes qubits possible to travel through that tube. '

Because the quantum computer sends photons through the vacuum. They are reaching sensors faster than photons that travel in the medium. The other way is to make the laser ray and the photon would ride in the tube in the fully controlled electromagnetic environment. 

https://www.eejournal.com/article/ibm-unveils-127-qubit-quantum-computer/

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

Image 1:) https://www.eejournal.com/article/ibm-unveils-127-qubit-quantum-computer/

Image 2:) https://en.wikipedia.org/wiki/Ivy_Mike

https://networkedinternet.blogspot.com/

The first programmable quantum computer is made by using neutral atoms.

The ability to use neutral atoms in quantum computers is a remarkable thing. Until now, quantum computers used trapped ions or superconductors in their structure. But the problem with those versions is that they are very sensitive against outside effects. If trapped ion touches the core of the chamber. Or the temperature of a superconductor is rising too high. That thing causes the problems. When we think about the possibility to make the room-temperature operating quantum computer. 

The researchers must "simply" calculate the resistance of the wire is possible to calculate precise points where the qubit reaches a certain state while it loses its energy. By using that information. The computers can calculate the points where qubits are releasing their information. So what if we want to make so-called quantum brains? What would we need for that? There is the possibility that the hybrid system is made by using a nanotechnological structure. The system's core would be made of silicon-carbon material where are chambers. 

Those chambers are connected as an entirety by using nano-tubes. In each chamber is the ion. That anneals by using radio waves or some other electromagnetic radiation.  The brightness of the ion is determining the state of the qubit. The annealing system will measure the brightness of the qubit by using the photovoltaic cells. In that system, the silicon core is also acting as the independent quantum computer. Which controls the quantum annealing system. 

Light is a good data transporter. If the brightness of the laser rays can adjust. That thing can use to transport data in quantum computers. The laser ray can shoot to silicon atoms. And that reaction can turn to electricity that can act as a qubit. The silicon atom-based quantum computers can get their data by using laser rays. And maybe those systems can operate at room temperature. 

The biological quantum computer is one futuristic vision of this system. 

The use of the biological components will decrease the need for energy in the quantum annealing system. 

If we are thinking about the most futuristic way to make the quantum annealing quantum computer. There is the possibility to use the biological components in this system. If we want to put the cells that are creating light in those chambers we could make the light. 

And then the brightness of the light can adjust by using the iris. So the core of that chamber would be equipped with systems that are looking like a camera shutter. And that shutter adjusts the brightness of the light. 

The problem with quantum annealing or other quantum systems is how to make the data travel in lines. The power of the quantum computer is this.  The system can share data with multiple central processing units. The idea is similar to the book that some school classes should read. There are two ways to make this thing. All members of the class are reading the entire book.

Or the teacher can share the book with all members of the team. And then every member of the team is reading small parts of the book. So the book is shared in pieces with team members. That means every person in the team will read only 10 pages from 200 pages of text. 

And after that, the members of the team will tell what happened during their 10 pages. That model is very good if the data mass that the system handles is linear. So the row of the data is like the book. And it will share between central processing units which are operating with a small piece of that data mass. 

When the system shares data there might be some top processor. That processor is like the teacher in the classroom. It preprocesses the data as the teacher looks at the number of pages in the book. And then the teacher asks, which part of the book the members of the team are taking. When the team members are ready. They send the mark that they are done their job. 

There is the possibility. That in the middle of the system is the light source. That shares data to the entirety. In that data flow is the marks where the system cuts it. Then every single part of the system tells others which part it takes to handle. 

It eliminates the work that has no meaning. The error handling requires that somewhere in the system that makes the similar data-handling processes. If those results are the same the solution is right. 

Then the rest of the others would select from the remaining pieces of data. That thing requires complicated structures. Human brains are the biological quantum computer. But to make a copy of human brains engineers must have at least 200 billion data handling units. And controlling those units is a very complicated mission. That requires multi-level quantum computers. And complicated AI. 

https://futurism.com/the-first-reprogrammable-quantum-computer-has-been-created

https://www.sciencealert.com/silicon-quantum-computing-has-reached-over-99-percent-accuracy

https://writingsaboutmysteries.blogspot.com/

Silicon carbide can be a key to a new type of quantum network.

The dawn of quantum brains. 

There is new silicon-carbide-based material. That brings researchers one step closer to quantum networks. The link to that article is here and below this text. 

Maybe the futuristic quantum brains are looking like this. The 3D atomic structure where the electron-based qubits are transferring data in the electron chains and the atom-sized structures that act like neurons. 

The system would make the revolution in the quantum systems. Theoretically is possible to make a quantum computer that can operate at room temperature. The AI makes it possible to calculate how much power the resistance of the wires is sucking from the qubits at a certain distance. That makes it possible to calculate the point where the qubit delivers energy and where it reaches a certain state of the qubit. 

The problem with quantum computers is that they are loading information in electrons or some other particle. Then that thing will shoot to receive or data is sent by using superposition. In some visions, the qubit is shot through nanotubes to receivers.

But the problem is that the qubit requires extremely stable conditions. The outcoming radiation makes that qubit useless. Also, things like gravitational waves can affect the trajectory of the qubit. 

So, how to make more powerful quantum computers that can operate in higher temperatures. One version is to use the molecular structure where the electrons are traveling as they would travel in the normal wires. 

The idea of the quantum wires in this case is. That they are transporting qubits like other electrons. But in that case, the electron would transmit data in its internal structure. When an electron travels from another atom to the next atom. There is the possibility to calculate how much energy is delivered in that case. Theoretically is possible to transport the data of qubits by using the electron chains.

In that case, the electron transfers the information to the next electron. And that means the information can travel in the quantum computer like in regular electric wires. That means the superconducting wires can use as the data transporters in quantum computers. But in the wild visions, the quantum computer can operate also at room temperature. 

The room temperature operating quantum computer requires information on how much power the resistance of the wire sucks from qubits. And of course, the required information is what is the distance where the qubit reaches a certain energy level. That information allows the quantum computer can deliver information of the qubit at a certain point of that cable. 

There is one wild vision. That is connected with neurology and quantum computers. The idea is that the axons or qubit channels are surrounded by fast rotating plasma or quantum tornadoes. That thing makes the time dilation in the brains. And it makes it possible to create a system, that has more time to handle problems. But that thing is a theoretical way to connect quantum systems with biological brains. 

Sources: 

https://scitechdaily.com/new-silicon-carbide-qubits-bring-us-one-step-closer-to-quantum-networks/

Image)  https://scitechdaily.com/new-silicon-carbide-qubits-bring-us-one-step-closer-to-quantum-networks/

The quantum tornadoes and quantum computers (Quantum tornadoes Part II)

The quantum tornadoes have a similar effect in the quantum world like a sonic whirl. That thing denies that the outcoming wave movement can affect particles like electrons that are traveling in it. 

The atom-size quantum tornadoes can use to turn the laser rays to screw. And that thing makes new possibilities for creating new quantum tools. The laser ray would shoot through the electromagnetic tornado. And that will affect the direction of the light. The electromagnetic tornado can use to create the laser ray that acts like an archimedean screw. Or it can use to make hollow laser rays. The hollow laser rays make it possible to shoot qubits through that quantum channel. 

But there could be possible usage. Also for the quantum tornado itself. It can use to cut molecules very accurately. And that thing can make the new visions for nanotechnology. The problem with nanotechnology is that the molecules must cut precisely at the right point. And the quantum tornado can be a useful tool for that thing. 

The quantum tornado acts like a tornado in our size world. When the electromagnetic whirl is forming around ions and atoms in the electromagnetic wave movement. That whirl affects the wave movement the same way as whirls are affecting air molecules. 

So the whirl is forming the channel in the wave movement. That channel minimizes the outcoming effect of the radiation. When the laser ray and qubit are sent inside that channel. That thing minimizes the effect of the outcoming radiation. 

The ion that rotates in a nanotube can use for creating stable quantum tornadoes. 

The problem with quantum tornadoes is that they are not very long-term phenomena. There is the possibility to make the superposition through the quantum tornado. In that vision, the quantum tornado protects the channel. That is formed between superpositioned and entangled particles. 

In that case, the quantum tornado is making it possible to protect information. That travels through that quantum entanglement. But as I wrote the quantum tornado is hard to stabilize. The electromagnetic whirl is forming around a rotating atom. Which temperature is near zero kelvin. 

There is the possibility to make the so-called stable quantum tornado by hovering the ion in the chamber or nanotube. The ion will stress by using radio-maser or coherent radio waves. Then that ion is put to rotate in the micro- or radio wave field that is shot through that nanotube. That thing makes it possible to create the long-term quantum tornado. 

If the slow qubit is shot in the quantum channel without a laser carrier. That thing makes the conditions that the energy is starting to flow out from the qubit very fast. So denying the outcoming radiation effect that thing increases the accuracy of the qubit. When the point of delivering energy or information of the qubit can determine very accurately. That gives more power to quantum systems. 

But that thing makes it possible to give more accurate radiation therapy than ever before. The electrons can shoot through the quantum tornadoes to the targeted cells. Then the system cuts the carrier radiation. And those electrons are starting to move the energy precisely to the target point. 

Even the speed of the best systems has limits.

 Even the speed of the best systems has limits. 

The resources of quantum computers and human brains are enormous. But even the best system has limits. What is the limit of the speed of a quantum computer? Nobody yet knows what the abilities of quantum systems are. But the thing is that the abilities of the quantum systems have limits. 

Even the fastest systems have limits. And the speed of the system is not limitless. The thing that the quantum systems can reverse time has brought an idea to the mind of researchers or at least myself that maybe someday. Quantum computers can create a solution and then send them to the past. But today that reversal of time is extremely short. And that means we should wait for practical solutions for a while. 

If the quantum computer can operate through time. That means that it can increase its limit. That means that the new state of quantum computers could be the qubits where the time dilation is extreme. And that thing opens the new visions for quantum computing. 

Same way like our brains has limits. We might think that quantum computers can handle many kinds of problems. But somehow we are wrong. Without knowledge our brains are helpless. Knowledge is the data that the brains are using for creating simulations. That is called "imagination". 

The thing is that the quantum computer's power would increase faster than nobody knows. But the thing is that quantum computers would not reach the power of human brains very soon. The quantum computer might have 1000 states in the qubit. 

That means that the system can make 1000 operands at the same time. But then we must realize that human brains have 200 billion neurons with many more connections. 

So the number of the quantum states in human brains is a minimum of 200 billion if there is only one connection between neurons. That means the brain can cut data to 200 billion parts that the brain can process that data. So the stress of one neuron is quite low. The neurons are the resources of the human brain. And even if there are billions of neurons. There are limited resources in human brains. 

But how do the brains create imagination? The ability to think abstraction is the key to planning things. The thing is that the brains are making simulations. The dreams or virtual events and then they would start to make the changes to those simulations. That thing means the ability to think abstraction. And this ability is also called imagination. Thinking abstraction is the thing that makes human brains superior.  

The abstraction makes it possible that the person can make solutions without seeing things. The reason why holy men were in the caves is simple. They were safe in there. 

The same way the monks were in their chambers and the people who wanted answers just send the paper to them. When the people who are thinking about the solutions. Are safe. And some other people bring food to them. They must not stop the process. When regular people are thinking something. 

They need to turn those resources into other things when they are not in a controlled environment. When the person would go out. The resources that are used for abstraction should release to handle things like data that senses are transmitting to brains. If those resources are not released. The person can walk straight under the car if the brain resources are handling abstractions. But that means that the data that is not stored in long-term memory is lost. 

There are always breaks while the person travels to get something to eat. And on those trips, there is always something else to think about. Those people must stop thinking. But when the person is safe and there is nothing else to do than answer some questions. Those people would be more effective data handlers than somebody who is walking on the streets. 

If the human brains have only one thing to do they would be more effective in that case than brains that are making many things. In the cases, that person should visit shops and other kinds of places. There are needed connections of the brains. The thing is that those connections can do only one thing at a time. 

And that thing means. That the person must release the neurons for everyday jobs. That causes that person can forget solutions. This is the reason why the thinker must live a so-called boring life. Same way if the quantum computer will suddenly need some other thing. It loses all the data collected from the simulations. 

The base data is existing. But data processed through simulations is lost. When we are thinking of the loops. Where the computer surrounds data and there is no answer. The thing is that the supervisors would not know how long making the solution takes? 

The supervisors can stop that loop anytime when the system's resources are needed for some other purpose. But the fact is that operator cannot know would computer get the solution if the data would travel only one time in the loop. This thing means that the solution can be after one second. Or it can be after 1000 years. 

https://www.independent.co.uk/life-style/gadgets-and-tech/news/time-reverse-quantum-computer-science-study-moscow-a8820516.html

https://phys.org/news/2019-03-physicists-reverse-quantum.html