New microchips are necessary to boost the AI.

"Scientists have demonstrated a breakthrough method. For building true 3D silicon chips. By stacking multiple layers of circuits. Without damaging existing electronics. The advance could help extend Moore’s law and deliver faster, more efficient computing as traditional chip scaling reaches its limits. Credit: Shutterstock." (ScitechDaily, The Next Computing Revolution May Come From Stacking Chips Like Skyscrapers)

The paradox of computing is this. There is never enough power for those systems. The new high-power computing that revolutionizes mathematics. Forces to develop new systems. That can resist attacks from new systems. The ability to create new protective algorithms. That can resist new complicated malware. Requires high-power computing. The problem is that. The microchips that run those AI-based algorithms. Running with full power. And that means. When new applications come. 

The entire physical system must be changed. The new types of quantum computers are tools. That can break any code. The role of those systems is simple. They can create new, ultra-long quantum prime numbers. The attacking systems require those prime numbers to crack the codes. And when the quantum computers launch an attack. Or assist the attack by generating quantum prime numbers. The only thing that can resist is another quantum computer. 

New AI-driven control systems require new and powerful physical systems. And the thing that can help to solve problems is new quantum computers. The paradox is this. A fully functional quantum computer requires highly effective AI to control it. The operating systems of those quantum computers are very complicated. They require powerful microprocessors. But in mobile systems, the space is limited. 

“Researchers have shown that elusive magnetic excitations can survive far longer than previously thought, opening new possibilities for ultra-compact quantum devices. Credit: Shutterstock” (SvitechDaily,Magnon Breakthrough Could Shrink Quantum Computers to the Size of a Penny)

The answer to that problem is technology, known as vertical integration. In those systems, the microcircuits are like towers. And that makes it possible to increase the number of transistors in those new 3D circuits. The system can keep. The temperature is lowered by using the small air channels. Or a nanotube-based architecture. There, the nanotubes are connected to a heat exchanger. That exhanger. It can be the element. 

Connected to those nanotubes. And the cold gas or liquid travels through those elements. That pumps the temperature. Out of those microchips. These kinds of microchips can control quantum computers in the future. And those heat exchangers can be connected to the cooler systems of the quantum chips. 

The quantum computer. It can be the size of a penny. If those quantum processors turn operational. They can miniaturize. The size of computer centers. The 250-qubit quantum computer matches the 250 regular microchips. That is one of the most effective systems. These kinds of systems can use the superconducting qubits. 

Another version is to use magnons. Anyway, those qubits require. A very stable and low temperature. The small quantum computer requires high-power coolers. So, theoretically. It's possible to keep its temperature low. By putting it into the  thermos box. There, the system keeps the temperature at a low level. The system can also use pressure. To raise the temperature that the superconductor requires. 

Magnon it is. “A magnon is a quasiparticle, a collective excitation of the spin structure of an electron in a crystal lattice. In the equivalent wave picture of quantum mechanics, a magnon can be viewed as a quantized spin wave. Magnons carry a fixed amount of energy and lattice momentum, and are spin-1, indicating they obey boson behavior.” (Wikipedia, Magnon)

“A lifetime of 18 microseconds could turn magnons from weak intermediate links into strong quantum memories and efficient communication channels on a chip. They may be able to connect hundreds of qubits through a shared pathway, serving as a long-awaited quantum bus for scalable quantum computers.” (ScitechDaily, Magnon Breakthrough Could Shrink Quantum Computers to the Size of a Penny)

“The new MultiQ-IT prototype can cool, trap, filter, and redirect over a billion ions simultaneously, dramatically improving dynamic range and signal-to-noise. Credit: Lori Chertoff/The Rockefeller University” (ScitechDaily, Magnon Breakthrough Could Shrink Quantum Computers to the Size of a Penny)

In some very exciting models. The quantum chip can involve a laser network. The points where the laser beams interact can act as quantum dots. And superpositions could be made through or between those quantum dots. Those systems are exciting. But they are a little bit. Too complicated. For the existing modern technology. The ability to miniaturize the quantum computers is exciting. 

When the system requires the ability to control qubits. It must see them.  This is the reason. For why the new sensor is interesting. The ability to see the points of atoms and molecules makes it possible to control them. The ability to see atoms and particles. And the ability to inject energy into them. Makes it possible to use atoms as qubits. 

In the same way. Those sensors. They can observe the qubits. These are created between quantum dots. The mass spectrometers. They can see which. Of those atom groups are stressed. Mass spectrometers can also transform the atoms into information. They can observe atoms. And a certain atom group. It can be a certain qubit or a state of the qubit. 

https://scitechdaily.com/magnon-breakthrough-could-shrink-quantum-computers-to-the-size-of-a-penny/

https://scitechdaily.com/mass-spectrometry-breakthrough-detects-billions-of-molecules-at-once/

https://scitechdaily.com/the-next-computing-revolution-may-come-from-stacking-chips-like-skyscrapers/

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

The new technology allows researchers to create quantum sensors. That can operate. In very high temperatures.

"Schematic image of a 2D sensor squeezed between two diamond anvils. Credit: Chong Zu, modified by SciTechDaily.com) (ScitechDaily, Scientists Develop “Unbreakable” Quantum Sensor Built to Survive 30,000 Atmospheres)

The quantum computer bases the quantum sensors. Those quantum sensors, called qubits, can work as a network. The morphing quantum neural network can be the most powerful computer that we have ever imagined. 

The new and powerful technology can revolutionize quantum engineering forever. When we think about optical quantum computers. There, the system controls qubits using light. Those qubits hang between the conoids. The new materials allow replacement of those conoids using the physical conoids. Those conoids were made using the nano-sized diamonds. It is possible to create a system or a sensor. That can operate under pressure. 30,000 times greater than Earth's atmosphere. 

"Scientists who study topological materials face a challenge — how to establish and maintain control of these unique quantum behaviors in a way that makes applications like quantum computing possible. In this experiment, Ames Laboratory Scientist Jigang Wang and his colleagues demonstrated that control by using light to steer quantum states in a Dirac semimetal. Credit: US Department of Energy, Ames Laboratory" (ScitechDaily, Discovery of Light-Induced Switching Mechanism Advances Optically Controlled Quantum Computation)

"Scientists at Auburn University created a new type of material where electrons can move freely across a solid surface. By arranging these electrons in different patterns, the material could one day be used to build faster computers or design better chemical reactions. Credit: Auburn University" (ScitechDaily, This Quantum Electron Breakthrough Could Make Computers Faster Than Ever Before)

The quantum sensor is between those diamonds. That thing makes it possible. To create a room-temperature superconductor. Those sensors can be used as a quantum neural network. These kinds of systems can be used to create small and compact quantum computers, which require less space than ever before. High pressure raises the superconducting temperature. The system can make new quantum supercomputers closer to the table than ever before. 

The quantum computer is not the same as the quantum sensor. Both of those systems use similar things. The quantum sensor uses the oscillation. In the low-energy atoms. Or, their quantum fields. The quantum computer transmits information between quantum points called qubits. The quantum neural network. Or a morphing quantum neural network. It is the system that transports information between quantum points. During that process, the system brings new information from outside the original data flow. 

The quantum computer doesn’t need as high an accuracy as the ultra-sensitive quantum sensor. That observes things like gravitational waves. The quantum computer requires the superconductors. Because resistance in the wire destroys information. The superconductor allows for transport. Of information in its original form. Information is the wave that travels on the shell of a wire. The resistance creates standing waves that break the quantum information. 

 https://scitechdaily.com/discovery-of-light-induced-switching-mechanism-advances-optically-controlled-quantum-computation/

https://scitechdaily.com/performance-benchmark-advanced-for-quantum-computers/

https://scitechdaily.com/the-holy-grail-of-physics-scientists-discover-new-path-to-room-temperature-superconductors/

https://scitechdaily.com/this-quantum-electron-breakthrough-could-make-computers-faster-than-ever-before/

https://scitechdaily.com/scientists-develop-unbreakable-quantum-sensor-built-to-survive-30000-atmospheres/

The neural spiral in our brains can mean very much to the human species.

    The neural spiral in our brains can mean very much to the human species.

And researchers can use the human brain as the model for AI-based solutions that are better than ever before. 

The neural spiral in the human brain is an impressive thing. It transmits information around our brain. And that thing is suspected behind the consequence. The thing in the neural spiral is that it gives brains the ability to analyze situations better. 

And that neural spiral gives us the thing called patience. That neural spiral makes our neural system better than insects. In insects neural system signals travel in one direction and that thing gives them an effective ability to handle information. 

But that thing means that if an insect decides to attack it will not think about the situation anymore, and that thing causes death if it attacks against the superior predator. If a human sees a cave bear human will go to a weapon before the hunter even thinks of attacking against bear. The neural spiral gives the hunter deliberation, and that ability is the thing that can save the hunter's life. 

Researchers used the human and other specie's brains as a model for high-power supercomputers. The human brain works like a computer. And that means it can give a model for next-generation systems. 

The thing is that researchers can model the neural spiral from the human brain into computers and morph networks. The AI-based morphing network means that the system can, as an example, forget things. The AI can have values that if the system doesn't use some database in a certain time the system removes those files. 

If we think about the mark of the recycling center, we can think that arrows are the sequences or pulses when data travels between computers. And at the end of every pulse is the computer. The system drives data in the direction where arrows show. And every time the data travels through the computer, that system analyzes the data that is handled by a computer. That is behind that ring. 

Image: Recycle mark can used as a model for spiral computing structure. Every arrow symbolizes the pulse where information travels between computers. And then after each pulse, the information travels through the computer that processes it. The number of processing sequences depends on how many times information travels in that circle. 

So the system can send the data to travel around this spiral or ring, and in every pulse, the data system can breed the information. That kind of system can be the ultimate tool for AI to analyze data. The type of those computers is not important. And they could be regular binary computers, DNA-based computers that can drive billions of programs at one time or they can be quantum computers. 

The AI-based kernel can make computers more powerful than ever before. And carbon nanotubes can make lightweight quantum computers possible. Every layer in the carbon nanotube is one state of qubit. So the four-layer carbon nanotube can act as a qubit where is one layer for zero, and three layers are for states 1,2, and 3. In the image is a layer nanotube, that could have qubit states 0,1 and 2. 

Maybe those lightweight systems are not as powerful as some superquantum computers. But they are more powerful than modern binary PCs.  And nobody expects that laptops can make the same things as supercomputers. 

The AI-based kernel can improve the system's power in every computer type. The binary computer can use different wires for transmitting one and zero. In that model, electricity that travels in wire one gives value one. And the electricity that travels in the wire two gives a value of zero. That thing makes the binary computer faster than ever before. And AI-based kernels can make this kind of system possible. 

By using fullerene nanotubes is possible to transmit information. In the form of qubits. In that model, each layer in a multi-layer nanotube is a certain state of the qubit. The quantum system can transfer data to those multi-layer carbon nanotubes. And that makes some kind of lightweight quantum computer possible. 

If there are four layers in the nanotube, that thing means that there is one zero layer and three states in qubits. This kind of system might not seem very impressive. But we can say that this kind of system's calculation power is enough for many simulations. 

The fact is that. The Internet allows to use of high-power quantum computers over the net by using laptops or even mobile telephones. That means the high-power quantum computers can be far away from their users. 

So lightweight quantum computers are not as powerful as super-powerful quantum computers that are in data centers. We can say that we don't even think that some laptops or home PCs have the same calculation power as some supercomputers have. However, the internet allows the users of the laptops can use the abilities of supercomputers. 

https://neurosciencenews.com/perception-brain-computer-23919/

https://www.sciencealert.com/liquid-computer-made-from-dna-comprises-billions-of-circuits

https://scitechdaily.com/biological-masterpiece-evolution-wired-human-brains-to-act-like-supercomputers/

The new systems allow researchers to control qubits better than any time before.

  The new systems allow researchers to control qubits better than any time before. 

The new observations about electron's permanent dipole movement are pathfinders for atom-size quantum computers. Precisely working quantum computers require the ability to control the system with extremely high accuracy. That ability requires that the system can observe its actor and a new type of sensor makes it possible to create new types of qubits. The ability to measure electrons' dipole movement makes it possible to create sterile photons with high-accurate energy levels.

Because the system sees the actor like electrons it can shoot very highly accurate laser beams into those quantum systems. If the system can make atom-size quantum computers those systems will be the most advanced tools that researchers have ever created before. 

The atom-size quantum computer that operates at room temperature can turn even nanomachines intelligent. In some visions, researchers can put atom-sized quantum computers inside living neurons, and those systems could make a new type of boost for neural networks. Those atom-size quantum computers can have microscopic chambers where they operate by using neural electricity. Those small systems might exchange information between neurons. And that thing can give a boost to the abilities of the insects. 

"MIT researchers have successfully controlled quantum randomness using “vacuum fluctuations,” introducing a breakthrough in probabilistic computing with potentially wide-ranging applications." (ScitechDaily.com/Harnessing the Void: MIT Controls Quantum Randomness For the First Time)

"A new study offers the most precise measurement to date of the electron’s permanent electric dipole moment, providing critical insight into the imbalance between matter and antimatter in the Universe. The study used electrons confined in molecular ions to improve the previous best measurement by a factor of about 2.4, aiding efforts to refine or extend the standard model of particle physics". (ScitchDaily.com/Cracking One of the Universe’s Biggest Mysteries: “The Most Precise Measurement Yet” of Electron’s Permanent Electric Dipole Moment) 

"Using laser light, researchers have innovated a precise method to control individual barium qubits, advancing prospects for quantum computing". (ScitechDaily.com/Laser Precision Qubit Control: Leap in Reliable Quantum Information Processing)

The ability to control the quantum randomness makes it possible to create new quantum systems with better error-handling capacity. 

What if we put qubit in the bubble, or some kind of cosmic void? That thing makes it possible to eliminate the outcoming radiofrequency radiation. The control of the qubit can made by using lasers. The idea is that the miniature void. That is made by using extremely high-energy electrons. 

A laser or some maser system inputs energy to that electron which forms the protective field over qubit. The idea is that the electron sends radiation that power is easy to calculate. And then that radiation keeps the natural radiation with randomly changing energy levels away from the qubit. The idea is that the calculated and controlled field covers the non-calculated field. 

The ability to control quantum randomness removes the disturbance from quantum systems. And that thing makes it possible to understand, model, and control the quantum systems. The ability to control quantum systems and calculate the outcoming effects makes it possible to create quantum calculators that have better error tolerance. 

Theoretically is quite easy to remove the outcoming radiation effect from quantum computers. The system must know the qubit's original energy level and then the level of outcoming energy. 

Then the system must just reduce the outcoming energy from the final energy level. (Final energy level-original energy level). Of course, the system must follow outcoming energy during the entire operation. And then it must know things like frequency, wavelength, and other kinds of things about the outcoming energy. 

But if the system knows all the necessary variables and makes the right calculations at the right time. That thing makes it possible to create new quantum systems with higher error tolerance. Or the system can control and detect errors better. 

https://scitechdaily.com/laser-precision-qubit-control-leap-in-reliable-quantum-information-processing/

https://scitechdaily.com/cracking-one-of-the-universes-biggest-mysteries-the-most-precise-measurement-yet-of-electrons-permanent-electric-dipole-moment/

https://scitechdaily.com/harnessing-the-void-mit-controls-quantum-randomness-for-the-first-time/

What does teleportation mean?

Somebody speak about the entanglement of tardigrades. But what that thing means? The term quantum teleportation or superposition and quantum entanglement mean. That the oscillation of the particles will copy to another particle. And that turns those particles to the same. And there is a theory that the fate of superpositioned and entangled particles is connected. Quantum teleportation means that the information travels in the superpositioned and entangled quantum system.

Teleportation is possible in the quantum world. So we can say, that the term "quantum teleportation" means almost the same as superposition or quantum entanglement.  In superposition two subatomic particles like quarks or electrons. Turn to oscillate with the same frequency. Normally that synchronization of oscillation happens by using electromagnetic radiation like laser rays. 

When two electrons are in line. That laser ray will synchronize the oscillation of those electrons. So that thing turns those electrons identical. And that thing is called superposition. The same electron is in two places at the same time. This is the key to the teleportation of things like tardigrades. 

In that case, there are two tardigrades in the line.  And then the electromagnetic radiation will shoot through another one. That thing should superposition all atoms in those creatures. That turns those tardigrades into one entirety. 

Then that thing should synchronize the oscillation of the atoms. Or the subatomic particles to one entirety. That means that. The tardigrades are like one single identically oscillating particle entirety. 

An electromagnetic bridge connects those entireties to one quantum system. This means that the atoms of both tardigrades are superpositioned. So the tardigrade itself doesn't move or transport to anywhere. 

Oscillation of those atoms. Which form teleported tardigrade. Just copied to another tardigrade. This means that thing is based the superposition. And that means the tardigrades are not moving anywhere. 

Science fiction tales are full of stories where some futuristic traders make clones while a customer is waiting. This thing could be possible if the time can be put to travel faster around the cloning chamber. That means the cloning chamber. Must be put in the warp bubble. And then the time is traveling faster in that bubble of nothingness.

The teleportation machine of fictional captain James T. Kirk could be impossible. But there is the possibility. That in the future some kind of teleportation machine is possible. The system would be the bioprinter. That is closed in a small-size Tipler cylinder. 

The Tipler cylinder is like the sonic whirl. The sonic whirl denies that the soundwaves or air molecules can travel through that thing. 

If the Tipler cylinder is made by using a quantum tornado. That denies the outside quantum fields travel through that quantum wall. That thing can be the thing that makes the opposite time dilation possible. 

The extremely fast rotating ion cylinder will deny the outside quantum fields effect to material inside the cylinder. Then there is the system. That pulls the magnetic- or quantum fields away from the cylinder. Because there are no quantum fields inside that cylinder. 

This Tipler cylinder could be a very fast rotating ion cylinder that dilates or stops time inside it. Then the bioprinter makes a copy of the teleported person. And after that, the EEG of the teleported person would copy into the nervous system of that clone. This is one version of teleportation. 

The person or object will just copy between chambers by using 3D printing technology. The thing is that 3D printers or bioprinters can make any organ. The teleportation system will make every single organ separately and then connect them to one entirety. 

But the reason why that thing is difficult to make in the real life is that. There is needed so large a mass of cells. That this thing is impossible. But if somebody will stop the time around the cylinder-shaped chamber. 

That thing would make it possible to clone the person while the customer is waiting outside. The 3D bioprinters would revolutionize medical care. But if we connect that thing with the opposite time dilation. This technology can be even more revolutionizing. But that thing requires the opposite time dilation. 

https://www.livescience.com/tardigrade-quantum-entangled-experiment

https://physicsworld.com/a/entangling-a-live-tardigrade-radiation-warning-on-anti-5g-accessories/

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

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

https://thoughtsaboutsuperpositions.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://thoughtsaboutsuperpositions.blogspot.com/