The 3D nano-skyscrapers can be used to make the new type of microchips. And even small-size quantum computers that can operate at room temperature can be possible by using biocomputers.

Image 1) "Researchers from the University of Cambridge used 3D printing. To create grids of high-rise ‘nano-housing’ where sun-loving bacteria can grow quickly".

"The researchers were then able to extract the bacteria’s waste electrons, leftover from photosynthesis, which could be used to power small electronics. Credit: Gabriella Bocchetti" (ScitechDaily/3D-Printed “Nano-Skyscrapers” Help Bacteria Convert Sunlight Into Electricity)

The 3D nano-skyscrapers can be used to make the new type of microchips. And even small-size quantum computers that can operate at room temperature can be possible by using biocomputers. Those systems can revolutionize nanotechnology. 

The nano-skyscrapers can offer the space where the bacteria that transform light to electricity can live. That kind of bacteria that transforms sunlight into electricity can deliver energy to the nano-size microprocessors. The nano-size microchips can use synthetic DNA as the springs that are operating as miniature switches.  

The fact is that the nanoscale springs that can transmit electricity can also make it possible to make the nano-scale quantum processors that can operate at room temperature. In that case, the data is traveling through the nanostructure in wires. And each of the wires is the one certain state or layer of the qubit. 

The fast DNA replication makes it possible to fix errors in the quantum system. The nano-size springs make it possible that the system can use binary as well as quantum mode. So, at first data and data-handling instructions are transmitted to the system by using the binary mode. Then the system can start to use quantum states. 

When we are thinking about this type of quantum computer there is the possibility that they use only the lines of the qubit. If the operations of this type of quantum computer are limited in the number of wires. That thing is still more effective than binary computers. 

But bio processors can also benefit bioluminescence light. For making the states for the qubit. The tubes where bacteria are growing can quip with the fast-operating dimmers. Those dimmers can control the light level that transmits data to the photovoltaic cells. The system can operate similarly with cameras. 

The extremely fast-operating dimmers adjust the light level. And the shutter cuts the data line. There is the possibility to put the CCD (Photovoltaic chip) on the nanotube or nano-skyscraper structure. And there is a color filter that can adjust the light, open and close in each of the tubes. Each wavelength that the CCD detects can be a certain state of the qubit. 

Image 2) "Test tubes holding water samples glow green inside an illuminator, indicating contamination. Credit: Northwestern University"(ScitechDaily/New DNA Computer Assesses Water Quality: Genetic Networks Mimic Electronic Circuits). 

The same technology is introduced in image 2. Can use for making electricity for the miniature quantum computer. In that case, every tube would equip with a closer and dimmer that makes it possible to adjust the light that travels to photovoltaic cells. 

Even if that kind of quantum computer is not possible those systems can deliver energy to nano-scale microprocessors that require extremely low voltage. 

Maybe those processors are not so powerful as the central computers are. But they can give more abilities for things like nanorobots. The computer that can use bioelectricity is interesting because it can operate without outcoming electricity. 

The only thing that this kind of system requires is nutrients that are delivering food to those bacteria. So the system can use an artificial stomach where are the same bacteria as humans. And the system can eat the same food as humans, and transfer it to electricity. But if the bacteria is a so-called vegetable. The normal vegetable fertilizer is enough. For making the power for the nano-tech processor. 

If there is some kind of damage in that kind of system the fast DNA replication allows to clone more of those electric bacteria. DNA auto replication allows also make the spare parts for the system. And that thing can be the next-generation tool for robotics. The lightweight and powerful microchips are required in independently operating small-size robots. 

https://scitechdaily.com/3d-printed-nano-skyscrapers-help-bacteria-convert-sunlight-into-electricity/

https://scitechdaily.com/dna-replication-speed-limit-could-be-a-breakthrough-for-stem-cell-therapy/

https://scitechdaily.com/new-dna-computer-assesses-water-quality-genetic-networks-mimic-electronic-circuits/

Image 1) https://scitechdaily.com/3d-printed-nano-skyscrapers-help-bacteria-convert-sunlight-into-electricity/

Image 2) https://scitechdaily.com/new-dna-computer-assesses-water-quality-genetic-networks-mimic-electronic-circuits/

The new type of quantum computer is basing photon magnetic interaction.

Photons can use to manipulate magnetic fields. 

One version of quantum sensors is the nanotube there is ionized gas or laser rays. The magnetic field senses the changes in the position of the ionized gas.

Or it can sense the changes in brightness of the laser rays. The magnetic field can manipulate by using photons. And that thing makes it possible to create more accurate sensors. 

But it can make a revolution in nanotechnology. The particle that will be moved can magnetize. And then that magnetic field can manipulate by using photons. If that ability can connect with scanning tunneling microscope. It can move single atoms on the layer. 

That kind of ability is making the new type of quantum computers possible. A single electron can take under the stylus. And then the photons can pump data in those electrons. And that is making it possible to make the new type of quantum computers. 

The new type of quantum processors can base the material there are tunnels. 

The laser rays will shoot through those tunnels. And the magnetic fields are sensing their brightness. If the magnetic field can affect the brightness of laser rays. That thing makes it easier to input data to photon rays. And that makes it easier to create a communication layer between electric and photon-based binary systems and connect keyboards and screens straight to quantum computers.

The new materials. And the new types of ideas. These are the tools for a new type of quantum computer. The image above this text is introducing a new type of nanomaterial. That material is full of tunnels. And those tunnels make it useful for new quantum computers. 

The photons can affect magnetic fields. And that thing makes it possible to drive data between photon-based computers to regular electric binary systems. That allows connecting the quantum computers to keyboards and screens. The electric impulses from keyboards will transfer to that structure. The magnetic field will also interact with photons or superpositioned and entangled particles. And that thing allows using the quantum computers by using regular keyboards. 

The idea of that kind of system is that through those quantum tunnels will be shot the photon beams. There is a magnetic field in that structure. And then the photons would shoot in those laser rays. Another way to make that thing is to pull the quantum entanglement through those tunnels. The idea is that the energy in that particle pair is symmetrically identical. 

The photons will shoot to the channel that connects those particles. And then those photons are used to anneal those particle pairs. Because data is traveling in both directions. That allows creating the error detection system. That kind of system uses two lines there identical data flow. And if there are differences in solutions there is a mistake or error. 

The idea is that the anneal of those superpositioned and entangled particles affects the magnetic fields. That allows the system can transform photonic dataflow to the magnetic field. The magnetic fields can detect the changes in annealing. And that allows driving data to binary systems like keyboards and screens. 

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

https://scitechdaily.com/physicists-manipulate-magnetism-with-light-playground-created-for-observing-exotic-physics/

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

Deep learning algorithms are like the expanding network of connections between databases. 

The data is traveling in the forms of X and Y. The system can connect the data handling units to the form (XY). The thing is, how the system would need the orders is how to sort the databases. There is "X" that makes it deep learning. 

The AI can search all databases where is "X", and then it tries to solve the problem (*X). If there is some actor that is commonly predicting Y. That term is in the position of an asterisk (*) that allows the computer to connect that thing with "Y". So if that thing is "X" the form of the data unit is (XY). 

And then the AI can turn to search the data unit that comes before the "X". Then that asterisk (*) is before "X". So the form of filling data unit is (*XY). And if that thing that is the most common is the "W" the form of data is (WXY). And then the system will try to follow the next data module. It must replace the asterisk (*WXY) by using the next letter. Until it has made the network of the entire data. 

The letters (XYZ) and others are the data units. The data units are databases that involve some kind of data. The data can be the movement series of the successful operation. But that kind of data handling tool can use to predict how some person would act in some polls. The system can mark is their differences in answers depending on the sender of the form. And also the system can detect things how the problems are solved. 

The fact is that in this kind of system. The key element is fuzzy logic. There is no way that there is always letter or data handling unit W before the XY. But there is an error level that will make the solution acceptable. When the system finds some other than the most usual data handling unit before the "(XY)". That thing means. 

That the human operator can check the thing why there is some other data handling unit. One thing that can make the case look like this (MXY) is simple. The operational area of the AI is different than in the case (WXY). The normal solution (WXY) might be meant for city area operating robots. And the (MXY) might be meant for the mountain area-operating robots. 

https://thoughtsaboutsuperpositions.blogspot.com/

A couple of versions of the quantum annealing systems.

 

One version of the quantum annealing processor might be the two-layer graphene structure. In that processor, the magnetic qubits will hiver between the graphene layers. And nanotubes. Nanotubes are acting as the pillars and their purpose is to make a four-side magnetic field that stabilizes the qubit. The qubit can be the ion-electron or proton. The data will input those qubits by using the high-accurate electromagnetic wave movement. 

The data-input system might base the scanning tunneling microscope. In the point of each qubit would be the stylus that is transmitting and receiving the electromagnetic radiation. That system will make the qubits that are between those layers shine brighter. 

Diagram 1

XXX=Graphene layer

()=Nanotube pillars

*=Qubits

W=Antenna that sends the anneal transmission

M=Antenna that sends the anneal transmission

There is possible to make the Trapped-ion system. That system bases the idea that the atoms that should anneal would close in the solid cube. This kind of system could use the absolute pure silicon bite. In that class can position the atoms that should anneal. The anneal can make by using laser or radio waves. 

That glass can be made by using high-pressure systems. The air must remove from the structure. And then the silicon must press by using a mechanical press. There is the possibility to cover that structure by using an iron layer. And then the system can use the magnetic press. The magnetic system that is pushing those systems or using the cross pull can create extremely stable and hard structures. The atoms that can anneal can be put in the structure. 

The thing is that the super cold water cooled near zero-kelvin temperature. The metal or noble gas atoms can position in that pure water. This kind of system requires extremely low temperature. 

But otherways water is one of the best elements for quantum processors. The problem is the liquid form of water. For stabilizing that structure is needed very low temperature. And that thing is making necessary for creating a very powerful heat pump system. 

Image :)https://scitechdaily.com/images/Advanced-Computer-Memory-Chip-Artist-Concept-1536x1075.jpg

https://thoughtsaboutsuperpositions.blogspot.com/

AI and quantum computers will revolutionize ICT.

MIT researchers made a new programming language for quantum computers. And that thing is a big step. For bringing those systems out from laboratories to the supermarkets. The new programming language opens fundamental possibilities for quantum computers. And that thing allows collecting of more programmers around those quantum computer processes. 

There is the possibility to make translator programs for well-known programming languages like Java, C++, Python, and many others. But translator programs along with highly advanced artificial intelligence. Makes it possible to use spoken language for making computer programs. In those cases, the programming tool follows commands like "draw circle which diameter is xx" or "make the form where are following fields and connect it to the database which name is XX". 

That thing makes the programmer's work easier than ever before. The thing is that artificial intelligence can be the next-generation tool for making web services. In that case, the programmer must just give the values that the web service must contain. And there is the possibility to use some other web service as a model. The AI can search the data from the Internet. And then it can make the necessary things like needed connections with the existing database. 

Or the system can ask things like flow chart as the model of the structures what the database should involve. The thing is that the AI can ask the feedback. And in that feedback, the users can tell what they want more. What they feel good, and especially what must be changed. That thing means. That interactive AI can make many things that were difficult before. 

There are already tools on the Internet like Google forms that are making it possible that every person can make things that required highly trained programmers before. That means everybody can make their polls on the Internet without any special training. And that causes the programmers are turning unnecessary. 

Quantum computers and web-based programming applications are making the internet safer. It is impossible to make malicious code by using web applications. If the user makes malicious code. That thing means that the AI detects that attempt. And then, the AI tracks the IP address where that traffic comes. 

The thing is that the quantum computer is the ultimate tool in data security. There is the possibility that the quantum system marks every single mark written on the platform that runs on it. By using a certain code. That code is the thing that identifies that the code is made by using authorized systems. That means the firewalls could block every mark. That is not checked by using web-based applications. 

That thing denies writing computer viruses. But as I am written before. There are new threats like social hacking where is the virtual actors. Or there is the possibility that the person whose log-in rights wanted to use would just inject by using sodium Amytal or tetrodotoxin. That thing makes those people tell their access codes. And that kind of thing can be a risk for national security. 

https://scitechdaily.com/twist-mits-new-programming-language-for-quantum-computing/

https://thoughtsaboutsuperpositions.blogspot.com/

How do quantum computers find and correct their errors?

   

 How do quantum computers find and correct their errors? 

Quantum computers are powerful tools. And even their researchers don't know the entire power of that system. But without an error-handling protocol, those systems are useless. The thing that the system is powerful doesn't mean that the system is trusted. 

The error handling process must be done before the quantum computers are turning trusted systems. That is delivering confirmed data. The error-location and error-correcting protocols are necessary for making full-function quantum computers. 

How do quantum computers locate and correct errors? Without that ability, the quantum system is useless. In normal or binary computers other computers will check the data. But the problem with a quantum computer is that the system would handle more complicated algorithms than binary computers. 

And the quantum computers might complete the calculation in minutes that takes the binary computers even thousands of years. So the binary computers are useless in this process. 

There is one thing that people must remember when they are talking about quantum computers. Quantum computers are more sensitive than binary computers. 

Things like gravitational waves and fast electromagnetic bursts like GRB:s (Gamma-Ray Bursts) and FRB (Fast Radio Bursts) can affect quantum computers. So that thing means that the error-handling capacity in the cases of quantum computers is in the key role for using them in trusted and confirmed operations. 

One version is to use two or more quantum computers for making the calculations. And if there are errors that would send the solution for the rethinking process. That kind of thing is one of the versions of the problem called error handling. 

Many things can make to ensure the results that quantum computers can get. One of them is to use control calculations. 

The well-known algorithms are giving confirmed results. And they can use for finding errors in quantum computers. 

And if there is a difference between the confirmed result and the result that is forming in quantum computers control drive. The quantum computer and its operator get information that there is an error in the system. Another way to ensure the calculation is to make the process multiple times. And if there are differences between results- There is some kind of mistake.

But before the quantum computer can benefit in full-scale operations. The error probability of that system. Must be determined. That thing can make by sending some simple calculations through the system billions of times. And the difference between answers is telling that there is some kind of error. In history, there is an example of a simple error in the function of the microchip. 

And that thing is called the "1+1 problem". When the microprocessor is handling data. By using extremely high speed. There is the possibility that some of its gates or switches are stuck. That thing causes that the computer will calculate the result of 1+1 being something else than 2. That thing causes problems with data handling capacity. The thing is that quantum computers are extremely powerful tools. 

But there is the possibility that some outcoming effect like GRB (Gamma Ray Burst) or gravitational waves can affect the energy level of the qubit. That thing means that the data is lost or it would release to the wrong states. So in the future. There is the possibility that in space will be satellites that are sending warning about incoming gravitational waves or GRB:s.

https://www.quantamagazine.org/how-quantum-computers-will-correct-their-errors-20211116/

https://thoughtsaboutsuperpositions.blogspot.com/

The quantum computer can be more than the sum of its parts (Part II)

The physical parts of a quantum computer are really important. But the purpose of quantum computers or any other computer is not just being. They are made for something that benefits their producers. The purpose of the data handling system is to handle data. So the computers are the entirety, which contains the physical system, operating system, and the commercial or productive application. 

This is the thing that we must realize when we are making the data system. Without an operating system and working, applications is impossible to prove the full-scale power of the data handling system. Quantum computers are still at a primitive level.  And their power will rise when they would turn more common. But they are proven their superior in data handling and extremely heavy and complicated calculations. 

But without the operating systems and the systems that are handling inputted data even, the best computers are a piece of plastic, silicone, and metal. When we are saying that the computer is the triangle of the operating system, hardware, and application. We must realize that also simple things like outputting the data in the form that the user will understand it. If the data cannot display after computing. There is no mean for making computers. 

Even if we want to make the most powerful computers in the world, there must be some motive behind those machines. Without a very good argument motive, there is no financial support for that kind of program. Even the best and the most powerful technological systems are without purpose. Without good arguments, the systems are not made because they are leaving without financial support. 

The best argument for increasing the scale of quantum computing is data security. The quantum systems can make the most secure network in the world. But the question is how to demonstrate the effect of the system? The thing is that quantum systems can break any code that is made by using binary computers. 

But otherwise thinking quantum computers can use also for making codes that are unbreakable for binary computers. That means quantum computers can deny the hacking where is used binary computers. But the binary systems are vulnerable to the attack that is made by using quantum computers. 

The purpose of quantum computers is to make data-handling processes easy. The reason why the new computers are needed must mention because of motives for making new and powerful computing systems. Motive is the key element for making new things. And the argument for quantum computers is that this technology is that these kinds of systems are increasing the security of the data handling network. 

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