The new hypothetical quantum engines and warp bubbles are the ultimate combination.

Wigner crystals can make even interstellar flight possible.  

When we think about the crafts that are mysteriously levitating over the ground we can think of situations in which the craft's body is in extremely low temperatures. And then laser ray will warm the ground under the craft. That thing can make the craft levitate. Because energy travels to the craft at an extremely high speed. 

In some other versions, the system uses superpositioned and entangled particles. Particles below the craft are at higher energy levels than particles in the engine. And that makes the quantum entanglement pull energy to the craft. 

Wigner crystals or fullerene balls where electrons are trapped can form symmetrical, sphere-looking energy impulses. If the graphene is formed in a Wigner crystal. There is a possibility that some engine has two layers of Wigner crystals. In those graphene layers is the superpositioned and entangled electrons. Those superpositioned and entangled electrons can send energy back from the system. If those layers are spherical that forms the ball-shaped power field. 

The internally installed fullerene balls can create a symmetrical sphere-shaped energy impulse. 

That means two graphene layers where electrons are trapped can use to make a new type of engine. In that engine, the system will put electrons trapped in those two graphene layers to superposition and entanglement. When the energy level of another electron layer is higher that thing makes energy flow to the side of the system where the energy level is lower. 

The mysterious sphere formed in the kilonova collision causes discussion. And interesting ideas. A spherical form of energy impulse can form a warp bubble. The mystery is why that kilonova formed a spherical energy impulse. 

Could there be some kind of phenomenon where a neutron star captures lots of electrons on its shell? If those electrons turn to positrons and then another electron hits them at the same time. That can form a pure spherical energy impulse. 

The fact about antimatter is that only mirror particles annihilate. The anti-electrons and neutrons can touch. So that thing can form a symmetrical energy impulse that travels inside the neutron star and then jump back from its nucleus. 

Wigner crystal. "Structure of a two-dimensional Wigner crystal in a parabolic potential trap with 600 electrons. Triangles and squares mark positions of the topological defects".(Wikipedia/Wigner Crystal)

Wigner crystal can be made by using graphene. 

The Wigner crystals can use for creating an absolute sphere-shaped energy impulse. And that thing can use for creating a warp bubble. 

In some ideas, the system can create warp bubbles by impacting neutrons. There is also the possibility that the fullerene can turn into an artificial Wigner crystal. 

In some models, the system creates a warp bubble by shooting positrons against the electrons trapped in the fullerene ball that turned into a Wigner crystal. That structure can form a pure spherical energy impulse. Because electrons are in Wigner crystals or fullerene balls. That system allows the creation pulsing warp field. or at least some kind of energy ball with a pure spherical form. 

Sometimes is introduced that those electrons can be replaced by using neutrons. But at this time, neutrons must anchor in that structure to the places where normally are electrons. And then, the neutrons will shoot to those neutrons that are in that crystal. 

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

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

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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. 

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