Atoms and diamonds.

“Artistic depiction of circular Rydberg atoms: Using optical tweezers (shown in green), the Rydberg atoms can be precisely trapped and arranged into controlled atom arrays. Credit: University of Stuttgart" (ScitechDaily, Scientists Break 3 World Records With Giant Atoms Built for Quantum Computing)

"Supersized atoms could help quantum computers run longer with fewer errors after scientists broke three records without the costly cooling these experiments usually require.” (ScitechDaily, Scientists Break 3 World Records With Giant Atoms Built for Quantum Computing)

Rydberg atoms are next-generation tools for quantum simulations. In these atoms, electrons are farther from the core than in normal atoms. Rydberg atoms are actually a type of Bose-Einstein condensate. The idea behind those atoms is “simple”. The system can raise one electron's energy level higher than it should be in its orbital. And that makes it possible. To create quantum entanglement between electrons in the atom’s orbitals. 

This means that the system can transmit information. By. Using photons to excite electrons in intermediate orbitals. That happens when electrons in intermediate orbitals interact with photons. The system can sort Rydberg atoms into a certain order. And. That can be a breakthrough in quantum simulations. The big problem with quantum computers is their size. Reseachers must remove all microwaves and other radiation from the system. 

A table-sized. Quantum computers can be ready for operations. In. The next 100 years. The biggest problem is that those systems require data center-sized systems to run their operating systems.  The superconducting technology can make it possible to create compact data centers. That means those superconducting supercomputers can fit in smaller areas than modern data centers. 

The problem is in superconducting wires. Because.  In those wires.  There is no resistance. That makes it impossible to use regular gates and switches in that system. The laser beams. They can warm those wires at precise points. That. Can form resistance in very accurate locations. The laser beam can switch the resistance on and off. This is one way to create resistors. 

Superconducting binary computers can also be revolutionary tools. Those systems can make very high-accuracy, high-speed calculations. The big problem with quantum systems and qubits is that. Those qubits are made of photons. That requires. A very accurate ability to control those photons’ energy levels. Information travels in quantum systems only.

“Conceptual illustration of an integrated quantum photonic circuit in which diamond nanobeams containing quantum emitters and spins are embedded within integrated photonic devices. Credit: Shuo Sun et al. (ScitechDaily, Tiny Diamond Beams Could Unlock More Powerful Quantum Networks)

"Building a circuit around a tiny diamond beam offers a way to keep more of the light that future quantum computers and networks could use.” (ScitechDaily, Tiny Diamond Beams Could Unlock More Powerful Quantum Networks)

If. There is another side of quantum entanglement at a higher energy level. Fully operating quantum computers require an ability to control complicated quantum systems. Sometimes people ask which is more effective. Quantum computer or superconducting binary computer? The answer. There is. A level of calculation complexity.  Before that level, a binary computer beats the quantum computer. The reason for that is that the quantum system must adjust the qubits.

Even if those quantum computers are someday on our desks. They. Need very powerful computers to control those qubits. The table-sized quantum computers require a data center to run their operating systems. Things. Like neural networks. And. Other types of systems are also effective. The morphing neural networks can also be more effective than quantum systems. At least. If. They must operate in everyday missions.  This means that Quantum computers will never control things like robots directly. Binary computers control physical systems. And quantum systems. They operate at theoretical or spiritual levels. They create complicated models that binary systems, like neural networks, use in their operations. 

For full-scale operations, quantum computers require quantum networks. Data travels as qubits in those networks. The big problem is how to create quantum networks. That don´t cost very much. If. That kind of quantum network can become possible. That is the next step for data security. A quantum network. It can be. Nanotubes. Where information travels at different frequencies. The system could use radio transmission; coherent radio waves travel in nanotubes. Data can also travel as skyrmions. In those nanotubes. Those skyrmions are like giant photons. The newest systems use nanodiamonds and photons to transmit information. 

https://scitechdaily.com/a-new-way-to-engineer-heat-could-revolutionize-energy-and-electronics/

https://scitechdaily.com/scientists-break-3-world-records-with-giant-atoms-built-for-quantum-computing/

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

Light computer rises the power of the binary computers that are still needed to control quantum computers.

The image above: illustration image

The new light transistors are making 1000 times faster binary computers than ever before. And that thing can make it possible to create more effective binary computers. But also that thing makes the use of quantum computers more effective. 

We are living in the time of quantum computers. So why the speed of regular or binary computers is needed to rise? The thing is that even if quantum computers are turning more and more common there is one thing that is making them limited. 

The data input to the quantum system happens through binary computers. So increasing the speed of binary computers would make that bottleneck between the binary and quantum computers larger. There are two ways to make ultra-fast binary systems that can input or transmit between regular computers and quantum computers. 

The first way is just to make the microcircuits superconducting. The problem with the superconducting microchips is that the electric flow will jump over the switches and routers very easily if the system uses extremely small-size nanotechnical components. 

The other way is to use the light as the data transporter. In the light transistor, the electric flow is replaced by using light. The laser light would travel through the base and collector. And the emitter will inject more laser energy into the laser ray that transmits the data. The light transistor helps to make the temperature of the system low. The routers of the system base the ultra-small mirrors. 

Those mirrors can turn to the wanted angle. Those mirrors turn the laser ray in the wanted direction. And the switches are the mirrors that are closing the route of the laser ray. Transforming the data from the photons to the electric form is quite a simple process. The laser rays will impact the miniature photovoltaic cells that are made by using silicone. That thing would use the photoelectric effect where the light is turning to electricity.

That transforming is needed for turning the data into the form that the peripheral systems like the microchips of display adapters can understand. The problem with quantum computers is that they need binary computers for transmitting data in those systems. The next big step in quantum computing is to make a system that can be controlled straight by using regular keyboards and that can introduce data by using the regular screens. If that kind of system is coming to markets. That thing is a new revolution for quantum computers. But the bottleneck is turning to display adapters and the keyboards and other peripherals. 

()https://scitechdaily.com/new-extremely-energy-efficient-optical-transistor-speeds-up-computation-up-to-1000-times/

()https://www.toppr.com/guides/physics/semiconductors/transistor-working/#:~:text=The%20three%20basic%20parts%20of%20the%20transistors%20are,substance%20is%20in%20use%20to%20make%20the%20transistors%3F

()https://visionsoftheaiandfuture.blogspot.com/

Quantum stealth makes it possible to make the craft that is invisible for radar, infrared, and even for the human eye.

The cloaking technology of Star Trek can be possible to make in real life. Quantum stealth makes it possible to make the craft that is invisible for radar, infrared, and even for the human eye. Maybe that technology is too advancing for existing technology. But many laboratories are working with quantum stealth. 

The article below this text is from the year 2011. And it contains old information. That means there are lots of things that happened in this sector. 

They are using the most powerful calculation tools. And quantum computers are making more accurate simulations than ever before. 

The advancement in quantum technology is so fast that nobody can imagine what happens tomorrow in that area. And that means the cloaking stealth can be a real thing sooner than we think. 

The idea is that the higher energetic electromagnetic radiation can turn lower energetic particles or wave movement-type energy away from its track. But the same thing can create by using superpositioned particles. 

If the particles are rotating in the same way they will act as a quantum version of the conveyor belt. The system can be created by covering the layer by using the vertically positioned superpositioned and entangled particle pairs. 

The base of the system can be the superpositioned electrons and photons. The superpositioned electrons and photons can act as the quantum version of the conveyor belt. Those particles will move the electromagnetic radiation in a certain direction. 

Because the radiation is traveling in a certain direction it cannot reach the observer. That thing will make the object invisible to the observer. 

The thing why this system makes the object invisible. Is that the quantum stealth or superpositioned and entangled particles aim at the radiation that impacts the layer in the direction that it cannot reach the observer. That means the reflecting radiation would not reach the observer because it travels away from the observer. 

Quantum stealth can also use different platforms like drones that fly ahead of the protected craft. That drone can also transmit the data of the environment to the protected craft. Because if the system uses high energetic wave movement or photons to drive incoming radiation out of the track that denies the possibility to see outside the layer. 

The more conventional version is to use the high-energetic photons and electromagnetic radiation that will push the photons or radio waves away from their direction. The system can use drones that will fly at the front of the aircraft. The system uses the radiation that will push the incoming radiation out of the direction.

Sometimes this type of system seems very impractical thing. The system denies the observations from inside that quantum layer. The observations can outsource to drones or other craft that is communicating with the main craft.

That communication can make by using the drone which makes the quantum field as the relay transmitter. When a drone is traveling ahead of the craft it will use the laser data transmitter which transmits data to the protected craft. The same drone that is used to turn the radiation away from the course can transmit the data of the environment to the main or protected craft. 

https://treknews.net/2011/05/07/science-fiction-or-science-fact-the-cloaking-device/

Image():https://treknews.net/2011/05/07/science-fiction-or-science-fact-the-cloaking-device/

()https://visionsoftheaiandfuture.blogspot.com/

Is quantum computer unbreakable against hackers?

The biggest threat to data security in quantum computing is other quantum computers.

Is quantum computer unbreakable against hackers? The thing is that nothing lasts forever. And the biggest threat to data security in quantum computing is other quantum computers. But there can be possible to observe qubits by using small-size devices that are observing the size of quantum fields of the quantum computer. One version is to superposition the atom in the quantum system, and that thing is used as an antenna that is observing the annealing of the quantum system.

When we are talking about pocket-size quantum computers, we forget one thing. Most quantum computers need extremely low temperatures that they can operate. So even if the quantum computer itself is small-size the cooling elements around it can be extremely large.  The thing is that the quantum computer is the ultimate tool for data security. But when they are turning more common. 

The security algorithms and protocols that are made by using quantum computers can be dangered. One version of how to hack the quantum computer is to install the radio sensor in that cooling system, that records the electromagnetic fields of qubits. Also, the spying tool can be the nanomachine or extremely small-size robot that resends the information to the larger computers that can try to break the secured processes. 

And those systems can use quantum annealing in that process. The system observes the changes in the brightness of qubits, and then that data can analyze by using the other quantum computer.

If we are thinking of quantum computers as unbreakable systems, we must remember that the same thing has been said about RSA encryption. That encryption bases on the two keys public (Username) and encrypted key (Password). That algorithm should be unbreakable, but it has been broken a long time ago. The reason why that thing has happened is the increasing power of computers. Of course, breaking the encryption code is turned more difficult by including special marks. And making the passphrase unlimited. But the historical eight-mark passphrases are quite easy to break. 

Especially if the passphrases are including only letters and numbers. And history is repeating itself in quantum computers. We know that someday the quantum computers are hacked. There is one thing that can open the secrecy, that is made by using quantum computers. And that thing is another quantum computer. 

The biggest threat is that the next-generation quantum computer will break the code that is made by using elder quantum computers. The fast advantage in quantum computer technology is causing the threat that the algorithms that are made by using old quantum computers turn too light for securing the data. 

When data is traveling in the quantum channel it should be invisible from outside. In that case, the qubit would be an electron, that travels in the laser ray. During that process, the electrons are interacting with the photons. 

And if there is a spying tool in the same space as that quantum wire. There is the possibility to observe the changes in the brightness of the laser ray. And that data can be used in the code-breaking process. In some other visions, the particles will superposition and are entangled through the quantum wire. In that case, qubits are interacting with the quantum bridge. And that stress can use for uncovering the data that travels in the quantum wires.

()https://visionsoftheaiandfuture.blogspot.com/