Quantum leaps make quantum computers more advanced.

"An artist’s impression of an analog quantum computer in which atoms are manipulated by lasers to simulate quantum many-body systems. Credit: Image courtesy of Nikita Zemlevskiy, Henry Froland, and Stephan Caspar" (ScitechDaily, Quantum Computers Take a Leap Toward Accurate Nuclear Simulations)

The new quantum computers take a leap into accurate atomic simulations. That improves material research. New materials like ultra-thin superconductors will turn quantum computers into new more compact forms. 

That means that. Maybe in the future. 

Quantum computers and their coolers can fit in normal rooms. And that is the big advancement. 

And many other things. Like fusion reactors and engine technology. 

New quantum computers are the ultimate tools in very complex calculations. 

There is a point in the formula's complexity. Where the quantum computer becomes more effective than binary computers. 

The ultimate complex flow simulations between atoms, ions, and electromagnetic force's interaction with natural forces require ultimate complex calculations. Atoms are complex entireties where four nuclear forces interact with electrons, hadrons, and quarks, that form hadrons. Those simulations leap the quantum computer advancements. 

The quantum computers will turn so trustable. That they can be used to develop themselves. 

The AI and quantum computers are the ultimate combination. 

That makes those systems development faster and more effective than before.

The most effective calculators in the world are tools that can be used to calculate the qubit's behavior in the quantum system. If that behavior can be controlled or predicted that makes quantum computers trusted. The problem is this: if the quantum entanglements in the system are broken without warning that means the data is lost. Quantum computers are good tools for running AI and especially for calculating large entireties. 

The thing that breaks even the simplest systems is the entropy. We can think that quantum computers transmit data in a structure that looks like two yarn balls there the string transports information between them. We can think that those strings are like carpets. We can push them forward if they are straight. But then if there is a wave that stretches the carpet. 

In quantum systems, the energy travels back to the string. That transports data in the qubit. That forms quantum superposition and entanglement. 

That makes waves between those particles. The wave. That forms in the string or belt that transports information warps the string. That string is not a homogenous structure. There are multiple substrings. And when one of those strings that are like a flat cable where wires are separated turns into curves that causes entropy. There is entropy even in the simplest systems. And that entropy destroys or messes up information. 

The qubit, quantum superposition, and quantum entanglements are harder to control than nobody predicted. In quantum entanglement, data travels from a higher energy level to a lower energy level particle like the belt. The problem is that those particles form the Moiré pattern when they are put into the superposition and entanglement. That position makes the energy wave in the string or belt that transports data in the superposition and entanglement. 

The problem with quantum entanglement is this: Information can travel only from the higher energy level to the lower. So, also energy level between the string that carries data must be higher than the receiving particle. The Moiré effect causes that energy to jump back to the string that carries data. 

That effect forms a standing wave between that string and the receiving particle. That pushes the string away from the receiver. This means there is impossible to transport information between particles in quantum entanglement with 100% accuracy. That inaccuracy makes it hard to control the quantum entanglement. 

https://scitechdaily.com/quantum-computers-take-a-leap-toward-accurate-nuclear-simulations/

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

The new materials and AI-based systems bring new winds to quantum computing.

Above: A Quantum router or hub can look like this. "A novel hybrid quantum computing approach simplifies algorithm execution by integrating natural interactions, reducing the need for extensive quantum gates and improving resistance to errors and noise. Credit: SciTechDaily.com" (ScitechDaily, Scientists Crack Quantum Computing Complexity With Revolutionary Hybrid Design)

Researchers created many new things that can boost quantum computing. New materials that absorb the outside interference from quantum channels allow the creation of a new error-free environment where the outside effects are minimized. The nano-crystals can be used to make electromagnetic shadows. That protects information in the quantum entanglement. The thing that destroys the quantum entanglement is the temperature. 

The IR radiation makes non-controlled oscillations in the particle pairs. Normally quantum computers create the quantum entanglement between photons. And the image of the photon makes it possible to control those particles better. The ability to see particles makes it possible to control particles. The Quantum computer can have two versions of the superpositioned and entangled particle pairs. The system can have outside superposition. 

"Using a novel double-transmon coupler, researchers have attained gate fidelities up to 99.98%, paving the way for more reliable and scalable quantum computing. Credit: SciTechDaily.com" (ScitechDaily, Quantum Computing Breakthrough Achieves 99.98% Gate Fidelity)

"Evolution paths of the single control qubit on the Bloch sphere in the hybrid approach to Grover’s algorithm. Credit: Sinitsyn, N. and Yan, B., Topologically protected Grover’s oracle for the partition problem. Physical Review A 108, 022412 (2023)" (ScitechDaily, Scientists Crack Quantum Computing Complexity With Revolutionary Hybrid Design)

"A molten salt method has unlocked new materials for quantum dots, expanding their technological and scientific potential. (Artist’s concept.) Credit: SciTechDaily.com" (ScitechDaily, Quantum Breakthrough Allows Researchers To Create “Previously Unimaginable Nanocrystals”)

There the the system puts simply two particles in the superposition. Another, more advanced way to make that thing is to use the internal superpositions of the photons. The internal superposition means. That information is shared into layers of the photons. The thing is that the control of the system requires full knowledge of the system. 

The X-ray systems that can see electrons and other things around atoms are tools. That can be used to make quantum entanglements between electrons in an atom's shells. Things like gamma-ray lasers that can observe the position of the quarks can make it possible to create superpositions and entanglements between quarks in protons and neutrons. 

It's possible that in the world of tomorrow, the quantum computer can use the internal superpositions of protons and neutrons to make the internal superpositions. In superposition, the particle transfers its oscillations to other particles. And the thing that makes the information travel "faster than light" is this.  The quantum channel that protects information allows it to travel faster than light travels in an environment outside the quantum channel. But in that case, the information doesn't travel faster than light travels in a vacuum. 

Those new breakthroughs make it possible to create new and scalable quantum computers. Researchers have made the quantum system that gate fidelity is 99,98%. And that is the new and very accurate way to make the system. That thing increases the power of the quantum system. The new systems can also exchange information between quantum and binary states, without the need to stop the system. 

The AI-controlled morphing networks make it possible for the interface between quantum and binary states not to stop when the quantum system transmits and exchanges information over the border of quantum and binary states. The system can have one binary computer pair for each quantum state. 

Or the system can select the receiving computer from the morphing neural network. The network control algorithm tells the router. Which of the computers in the segment is free, Then the router can route the data to the free computer. If the qubit has 125 states there can be 125 binary processor pairs (250 processors) that operate their own state. 

The morphing neural networks can also emulate quantum computers. Each of the binary computers (microprocessor) in the networks. Can work as one state of the qubit. The morphing means that the system can share missions with different computers. Or it can connect all computers to work for the one focus. 

https://scitechdaily.com/quantum-breakthrough-allows-researchers-to-create-previously-unimaginable-nanocrystals/

https://scitechdaily.com/quantum-computing-breakthrough-achieves-99-98-gate-fidelity/

https://scitechdaily.com/scientists-crack-quantum-computing-complexity-with-revolutionary-hybrid-design/

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

Quantum computers can make fully automated systems more efficient than ever.

"Quantum information could enhance coordination between autonomous devices, improving efficiency and bandwidth use. Experiments show shared quantum qubits enable influence without direct communication." (ScitechDaily, Quantum Computing Could Make Self-Driving Cars More Efficient Than Ever)

That is not a very big surprise. Quantum computers can solve mathematical problems and handle linear data faster than binary computers. The quantum computer solves a mission. That takes even thousands of years if operators use binary computers. Quantum computers can handle data flow and control sensor and system fusion faster than any binary computer. 

That's why quantum computing can make self-driving cars more effective than ever. In future visions, self-driving cars communicate with traffic control cameras and other systems like GPS. 

Starlink and other satellite-based solutions offer the possibility that self-driving vehicles can communicate with each other and the computer centers. The self-driving cars can create morphing neural networks with other systems and devices. That allows them to operate safely. The thing that makes self-driving cars interesting in the city areas is this. The car can leave the owner at the office's door, and then drive back home. The electric vehicle doesn't need fuel. 

And at home the car can have a manipulator's arm, that it puts into its loading point. The self-driving cars can cooperate with things like drones. Which can offer the possibility to check things. Like rush hours. The same technology allows to make aircraft swarms or land vehicles like tanks that can communicate with each other, long-range drones, and other types of devices and vehicles. 

A Large language model, LLM needs very high-power calculation capacity. The quantum computers can solve that problem. The AI-based operating systems can connect morphing neural networks with quantum computers. The idea in those hybrid systems is when a morphing neural network requires the quantum computer's assistance it calls quantum computers to share their calculation capacity. The morphing neural network can connect robots into one entirety. And it can emulate quantum computers. The morphing neural networks allow to reprogram cars in seconds. 

That means the car can call other robots to assist it. While a person works the morphing multipurpose robot system can call to the local market and then the robot can collect things into shopping bags and then load them into the car that drives those things to home. The AI-controlled drone can fly those things to the balcony. The morphing neural network allows the system. With limited calculation capacity can call other system's assistance. That makes also limited systems more effective. 

The new winds for diamond-based quantum computers

The idea of diamond-based quantum computers is not a very new thing. The idea of those systems is that. They use some abilities in diamonds to make the qubit. There are two main things. That can make diamonds suitable for quantum computers. 

The first thing is acoustic qubits. Their information travels from one place to another. Benefiting the acoustic-, or phonon waves. Or the system can use the chemical bonds between carbon atoms as the quantum tunnels. The quantum entanglements would travel through those channels. And the diamonds can protect them against outcoming radiation. 

The long-range quantum entanglement would be possible if the researchers could remove things like heat from the route of the quantum entanglement. If we think of the possibility of making a quantum tunnel through the air or space, we could transport information at a very high speed from one place to another. 

The system can involve two light strings that travel around the center laser rays. The system would close the outside effects from that hollow laser beam using the electromagnetic systems that remove particles from the laser channel. The high-power laser ray can make that thing. Then the system makes the magnetic channel around that laser channel that transports all ions and quantum fields from around it. That thing makes it possible that there is a so-called false vacuum or weaker quantum fields in that channel than around it. 

"Developing a diamond-based quantum computer, the SPINNING project focuses on superior performance metrics like lower error rates and extended coherence times compared to traditional models. Recent breakthroughs include long-distance qubit entanglement, showcasing the potential for practical, scalable quantum computing applications. Credit: SciTechDaily.com" (ScitechDaily, Discover the Quantum Power Hidden Inside Diamonds)

"By employing quasicrystals, researchers at Aalto University have found a new way to enhance data transmission using light vortices, potentially multiplying the current capacity of optic fibers by 8 to 16 times. Credit: SciTechDaily.com" (ScitechDaily, Laser Storms: Physicists Create “Light Hurricanes” for 16x Faster Data Transmission)

Light tornadoes can travel through channels between carbon atoms in diamond. And maybe someday. The system can use quantum tunneling to transport information into those channels. 

"Researchers have developed a material with unique magnetic behaviors characteristic of quantum spin liquids, opening up new avenues for exploring quantum states of matter. Credit: SciTechDaily.com" (ScitechDaily, New “Quantum Spin Liquid” Discovery Opens Doors to Uncharted Magnetic Realms)

The acoustic system can create a channel through the water. The photon travels in that channel with speed that is speed of light in the air. That speed is faster than the speed of light in water. 

So can quantum entanglement transport information faster than light? It can transport information faster than it travels in the medium. But it cannot transport information faster than light travels in a vacuum. It's possible to make the vacuum channels in the quantum tunnels in the diamonds. The diamond-based quantum computers can keep diamonds in liquid hydrogen tanks in gold mines their researchers research neutrinos. There those systems are well-protected against outcoming effects. 

As I wrote many times the quantum entanglement can transport information faster than it travels in a normal environment. In that case, the system removes the medium from the information tack. And because the quantum fields and material are thinner than outside this electromagnetic wormhole the information can travel faster than otherwise.  In the same way, acoustic systems can make channels through liquid like water. The light travels faster in that channel than it travels in water. 

The liquid hydrogen can also protect the quantum entanglement. The system can create quantum whirls that act as acoustic wormholes and the quantum entanglement can pulled through that channel. Liquid hydrogen very good insulator against radiation. Liquid hydrogen can remove electromagnetic resonance from quantum computers. In simplest models, the quantum computer will sink into the liquid hydrogen. 

Quantum tunneling like photonic or light tornadoes are tools that can make those quantum computers possible. The idea is that the light tornado that travels inside another laser ray can also carry information in the form of an electron or photon qubit. The system acts like the Archimedean screw but the whirling light waves replace physical structures. The qubits, or qubit photons can travel between those light waves or light strings. And that could make it possible to transport information between two objects. 

https://scitechdaily.com/laser-storms-physicists-create-light-hurricanes-for-16x-faster-data-transmission/

https://scitechdaily.com/discover-the-quantum-power-hidden-inside-diamonds/

https://scitechdaily.com/new-quantum-spin-liquid-discovery-opens-doors-to-uncharted-magnetic-realms/