Quantum physics determine how to control two light sources rather than one.

Why handling two quantum light sources is important in quantum systems? And especially in quantum data-handling systems. That allows sending identical dataflows in two data handling (or computing) lines. By using this technology is possible. To create expanding quantum information network. The only limit to that thing is the power of the information or energy waste in the system. 

When a light beam or information reaches some quantum unit in the quantum system. That unit absorbs a small part of the energy. So the system needs outcoming energy stimulation for growth. 

The idea is that at the end of each line is the quantum "hill" that doubles the information lines. And that makes it possible to create a theoretically endless number of quantum data lines. The thing requires that each data handling line has a system that brings outcoming radiation emission in the quantum light beam. That helps to replace missing energy that denies the system expansion. 

On the right side of the quantum "hill" is a superpositioned and entangled particle pair. That superpositioned particle-pair can send information back to the quantum "hill".  The thing in this kind of system is that it can use as the quantum router. 

The image above this text shows how an energy beam comes upward of a quantum point. That quantum point doubles the energy beam or light source. When the light impulse hits that quantum "hill". It sends energy beams or light beams to both sides. The asymmetry of that structure determines where information travels. 

The "quantum hill" can use to transmit information in two lines in the quantum computer. That thing makes it possible. That two quantum computers can handle identical information flow. 

And it helps to find errors in calculations. If results in both lines are not identical, there is an error. But if the results are identical there are probably no errors. This is one model for a functional quantum system. 

https://phys.org/news/2023-01-quantum-physicists-sources.html

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AI and quantum computers are the ultimate combinations.

Why cosmic superbubble's magnetic fields are interesting? The answer is that the common magnetic field determines the border of the local cosmic bubble. But the common magnetic field and certain energy levels determine the quantum system. 

One of the things that can determine the quantum system is the certain energy level or the state of the participants of the quantum system. Or we should rather say that the thing that determines the quantum system is that it's the group of participants that can exchange information with each other. 

When we want to make things like a quantum computer. We must bring information from outside to the quantum system.  If we cannot make that thing the quantum computer is useless. Same way, if the errors that a quantum computer makes cannot be detected and correlated, that makes quantum computers useless. 

In some visions, the nanotechnological computer that is put into orbit in the LHC (Large Hadron Collider) can use to make the error correlation and error detection for quantum computers. 

The idea is that the time dilation makes the binary system operate the same way effectively as the quantum computer. Benefiting the time dilation means that the time dilation makes the time move slower in the fast-moving computer. And that gives more time for the calculations. 

One of the most problematic things in quantum computing is error correlation and error detection. Quantum computers are the most powerful computing systems in the world. And that thing means that the only thing that can detect errors in quantum computers is another quantum computer. 

Another problem with quantum computers is that they require superpositioned and entangled particle pairs. The problem with quantum entanglement is that it requires that another side of that thing is at a higher energy level. If the energy level in quantum entanglement reaches stability that destroys the superposition. 

Information cannot travel in quantum entanglement if its energy level is stable. That's why the system cannot keep quantum entanglement longer time. The quantum entanglement exists for about ten seconds. Then the system must re-adjust itself. The AI can observe the quantum entanglement and when its energy level turns stable. It can drive information to mass memories. 

The AI can use for error-detecting. The idea is that when the quantum computer operates for a couple of seconds it can transfer the answer of the calculation to the binary mass memory. The binary system can check part of the calculation series in bites. So the system benefits from the adjustment moment of the quantum computer. And then it makes the bite of calculation. 

In some very futuristic ideas things like time dilation can use in binary systems, and they can check the results that quantum computers are making. The idea is that time is dilated in binary systems. In some visions, the miniature computer that is closed in the nanotechnical capsule will be put into orbit in the LHC (Large Hadron Collider of the CERN).  

New artificial intelligence-based systems can revolutionize everything. When the Ai use to tame quantum systems the idea is that the AI can control individual components in the quantum system. Or actually, the AI can search the quantum system. 

And then, it records the interaction values between outcoming energy and the quantum system's internal energy. When we look at things like quantum computers. We must remember that if we want to control quantum systems. We must bring energy from outside to the system.

And we must make that thing precise in the right point of the system. If the point is wrong, outcoming energy doesn't give wanted value. And that thing destroys the quantum system. The system's destruction means. That it doesn't make anything that the users want. 

The thing that machine learning makes in that kind of research is that it records energy levels and points that give wanted values in the longest possible time. So the AI can adjust the energy level and the point of incoming energy. That is brought to the quantum system very accurately. 

https://scitechdaily.com/groundbreaking-3d-map-of-cosmic-superbubbles-magnetic-field-unveiled/

https://scitechdaily.com/using-artificial-intelligence-to-tame-quantum-systems/

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The digital "demon": how to increase the quantum computer's power? (Part2)

The key element in qubit is how users can be sure that its value is zero before the system starts to transfer data to it. The normal way is to decrease the temperature of the qubit to zero kelvin. In fact. That thing is probably not necessary in the future. 

The system can take any temperature or energy level to zero point. The zero point could be, for example, 20 degrees Celsius. 

The zero point is the point. Where the system starts to transfer data to the qubit. The problem with high-temperature qubits is how to control their oscillation. But if the system can keep the energy level stable that thing can revolutionize quantum computing. When zero-point is determined. The system can make superpositions and entangled pairs of elementary particles. 

And then the system will operate for a while. The problem is that the energy level between both ends of quantum entanglement must not be the same. 

If the energy level of superpositioned and entangled particles is the same. That thing breaks the quantum entanglement. The reason for that is when both particles reach the same energy level the wave movement that they send pushes those particles away from each other. 

That means the time that the system can keep quantum entanglement is limited. So if we return to Maxwell's demon model we can maximize the time that quantum entanglement remains by using the simple thing. We can put another side of the quantum entanglement to a minimum energy level. 

And the other side will rise to maximum energy level. When the difference between energy levels of both sides of quantum entanglement is very high, that maximizes the time that the system can maintain the superposition and entanglement. 

But then we can increase the quantum computer's power by using the model where the zero point of the qubit is determined individually in each case. The system can determine the zero point as an example to 20 degrees Celsius. But then the system must keep the energy level or temperature of the qubit stable. 

The problem is that the hot or warm qubit must not oscillate. So the system must protect the qubit. Or the data will not keep its form. The problem with high-temperature qubits is the oscillation. 

But other ways. As I wrote earlier, the system can determine any temperature or energy level to zero point. If the system can keep the oscillation of the qubit in its form that can be a revolutionary advance in quantum technology. 

https://shorttextsofoldscholars.blogspot.com/

Quantum entanglement is one of the most useful things in quantum mechanics.

This is writing about data transportation by using quantum entanglement. There is also the possibility to use quantum entanglement in particle accelerators and advanced ion engines. But I will write about those things later. 

When we look for practical solutions for quantum mechanics we must look at quantum entanglement. Quantum entanglement or the spooky effect in distance means. That the elementary particles are at the same time in two places. That happens by putting those elementary particles oscillating with the same frequency.

The thing that makes information travel in the quantum computer is that another side of the quantum entanglement is at a higher energy level than the other. That thing causes the information flows to the side of the quantum entanglement. That is at the lower energy level.

And when the sides of the quantum entanglement are at the same level. That thing causes the radiation or wave motion that those particles send brake the quantum entanglement. And that thing is one of the most interesting things if we want to transport information long distances in the form of a qubit.

At this point, we must make a difference between long-distance and short-distance quantum communication. Of course, there is no theoretical limit to the length of quantum entanglement. But transporting qubit long distances can happen quite a simple way. 

In qubit-based quantum communication, the information would load to the quantum entanglement. And then the quantum entanglement's energy level will put the same level. Then the wave motion will push those participants of that thing away from each other. 

If quantum entanglement is made by using the particles that react with magnetic fields. That thing makes it possible to aim those particles away from each other. Then the particle that transports information can put to travel in the hollow laser or microwave ray. That thing protects the electron or positron that transports information. 

This is the reason why things like positronium are under research. Positronium is the system where electrons and positrons (anti-electrons) orbit each other. If quantum superposition is made between electron and positron. 

That thing allows the creation of superposition that the system can easily control by using magnetic fields. Also if the transporter particle in long-distance quantum communication is the positron. That makes it easy to destroy it after the data. That improves data security.

Destroying data transporter by using annihilation denies the attacker's ability to steal them. After the data transporter traveled through the sensor there is a theoretical possibility that somebody could steal it. And then that attacker could restore the data remnants but that thing is purely a theoretical way to steal information from the quantum system. 

See also: Positronium

The quantum entanglement can also make it possible to create the ultimate engines and ultimate stealth technology.

When we are thinking about the quantum entanglement it can use to make the most powerful engines in the world. The engine itself can be the two- or tri-layer graphene structure. The energy flows in quantum entanglement to the lower energy areas. 

And that thing makes it possible to make the engine where quantum entanglement is driving energy in the opposite direction where the craft will travel. That kind of graphene structure-based engine makes it possible to create a craft. That can change its flight direction very fast and that thing can make the UFOs:s possible. 

Another thing that quantum entanglement can use to make things invisible. The quantum entanglement makes the quantum hair around the structure. And that denies the reflection to the observer's direction. So quantum hair acts like an owl's soft feather suit. It denies the reflection of the sound

That thing can be the key element to the next-generation stealth. One thing that can make the craft invisible to the radar infrared and the human eye could be the quantum rotor. 

The quantum rotor is the quantum entanglement or other quantum structure that rotates like a rotor. The rotating quantum structure will push photons to the direction that can be the back of the craft.  So that thing can be the thing that makes objects invisible. 

The size of the quantum rotors is far smaller than the nanomachines. And that thing allows them to operate also at the high-speed flight. The quantum rotors can also be the tools for getting closer to the speed of light. When the structure is moving at a very high speed. The quantum rotors can put to push the quantum fields backward. And that thing makes the craft invisible to the human eye. 

In the "Bermuda system," the ion cloud can cause the object loses its electrons. And the ion flow or loss of electrons can cause the object is vanishing. 

The thing is that the ion or especially the proton flow will make the object invisible to radars. That thing can explain the vanishing of some aircraft. The proton flow will pull electrons out of the material.

In some theories, the ion field that is forming around the aircraft or ship can create the effect called the "Bermuda triangle". If a proton cloud surrounds the object. That thing removes electrons from the object. And that destroys the object. 

In some more or less exciting visions, the loss of some propeller aircraft causes by the tests where the air will ionize in the propeller. And then, magnets will pull those ions to the aircraft's wings causing an airflow that is creating the buoyancy. If that system is not made the right way the ion flow destroys the aircraft immediately.

So was the fate of Flight 19  famous  5 TBM-3 Avenger torpedo bombers which vanish near Bermuda on December 6 1945 the ion flowed around the aircraft. If the propeller would ionize the nitrogen and oxygen in the air. That thing can destroy the aircraft immediately. That kind of ion cloud can cause the vanishing of almost all objects because they are pulling electrons away from an object or they can impact an object causing that material to vaporize. 

https://www.nasflmuseum.com/flight-19.html