Wormholes can make the stable quantum channel in quantum computers.

Wormholes could make it possible to create stable quantum entanglement. But the problem is that nobody is made the quantum-size wormhole between quantum-size black and white holes. But virtualization of the wormhole is possible. 

Theoretically, things like wormholes between quantum-size black holes and white holes can make it possible to create the most powerful quantum computers that ever be possible to make. The problem is that aiming the direction of the quantum-size wormhole is difficult and the system requires enormous energy mass. 

The wormhole can aim by using superpositioned and entangled particles. And the creation of the required black hole can make by pressing the electron or proton in the middle of the ball-shaped chamber. That system can be possible somewhere in the future. 

Fullerene nanotubes inside maser-rays could use as virtual wormholes.

Fullerene nanotubes inside maser-rays could use as virtual wormholes. The maser ray protects the nanotube against outcoming radiation. And the quantum entanglement can form through that miniature fullerene channel. 

But the fullerene nanotubes are making it possible to make the virtual wormhole between the objects. The idea of the use of carbon nanotubes is that the quantum computer system basing on the idea that the carbon nanotube protects the qubit or quantum entanglement against the outcoming effects. The quantum entanglement can form through the nanotube. 

If researchers want to make it easy that energy in the virtual wormhole travels to one direction they can put Bose-Einstein condensate at another end of the nanotube. And that causes the effect where energy travels to the side of the Bose-Einstein condensate.

And if the maser ray will travel around that nanotube channel there is the possibility to make the virtual wormhole. In that virtual wormhole would be no crossing electromagnetic fields because maser rays that travel outside the nanotube deny access to natural quantum fields in that tube. That thing protects the qubit against the outcoming effect. 

The quantum computer could use the electrons that travel between laser impulses as the qubits. In that kind of system. Is easy to deny electromagnetic turbulence. The laser ray will aim at the electron. And it will push the electron through the nanotube or virtual wormhole. 

See the next terms: 

Black hole

Quantum entanglement 

White hole 

Wormhole

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 Nanotubes are not standing forever. But they are ultimate tools. 

The nanotubes are vulnerable to pulling. If the atoms that are creating nanotube would be separated. That thing will pull them away. The difference between carbon-based nanotubes and metal is that carbon nanotubes are not elastic. They can cut before previous damages. And that thing is one of the weaknesses of nanotubes. 

Every material has limits. And even nanotubes cannot stand forever. The thing is that stress and other things are causing the situation that sometimes even diamonds will break. The fact is nanotubes are strong and very useful materials for many purposes. They can use in modern photon-based computers for protecting laser rays for eavesdroppers. And in quantum computers, the qubit can travel through nanotubes that protect them against outcoming effects. 

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Image 1: "Rice University researchers determined several ways a nanotube experiences plastic failure, either through dislocation movement under 6% strain (here) or through shear band formation under 14% strain. Both mechanisms, seen in kinetic Monte Carlo simulations, only activate under extreme conditions, so neither appears to be a significant factor in the fatigue of the nanotubes. Credit: Nitant Gupta/Yakobson Research Group" (https://scitechdaily.com/nanotube-fibers-stand-strong-but-for-how-long-under-stresses-and-strains/)

Image 2: "Rice University researchers determined several ways a nanotube experiences plastic failure, either through dislocation movement under 6% strain or in this animation through shear band formation under 14% strain. Both mechanisms, seen in kinetic Monte Carlo simulations, only activate under extreme conditions, so neither appears to be a significant factor in the fatigue of the nanotubes. Credit: Nitant Gupta/Yakobson Research Group" (https://scitechdaily.com/nanotube-fibers-stand-strong-but-for-how-long-under-stresses-and-strains/)

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The nanotubes can also protect things like scanning tunneling microscopes and a new type of laser microscopes. In those systems, the ion will hover in the nanotube. Or laser rays will just send through the nanotube and that thing protects the measurement system against non-controlled effects. When an extremely thin system scans the surface of the layer even one air molecule can cause errors for measurement. 

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If the scanning tunneling microscope uses superpositioned and entangled photons for scanning surfaces. That system sees even individual electrons. 

The accuracy of the scanning tunneling microscopes is so high. That they are seeing individual atoms. But the quantum entanglement would make those scanning tunneling microscopes more powerful than ever before. 

If the system uses superpositioned and entangled photons or electrons for scanning surfaces. That system sees even the individual electrons. 

But the superpositioned and entangled photons require extremely high controlled conditions. So the superposition can conduct through the nanotube that protects it from the outcoming effects. 

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Image 3: "An electron wavepacket is directed at a potential barrier. Note the dim spot on the right that represents tunneling electrons". (Wikipedia, Quantum tunneling)

The nanotubes can give more power to ion engines. 

Also, maybe someday nanotubes can use for creating rocket engines. That will use quantum tunneling for making faster exhaust gas. In those futuristic ion engines, the quantum tunneling makes it possible that the ions or electrons and protons can travel faster than in so-called regular rocket engines. 

If the ion engines ion flow will be covered by microwaves. That thing protects them to side coming electromagnetic radiation. The side coming radiation along with quantum fields are the thing that slows the particles. 

The quantum tunneling makes it possible that the speed of the particle is rising to a level that is higher than everywhere else. And nanotubes can use to create conditions. Where the particle's speed is so close to the speed of light. As possible.

Researchers can theoretically make the conditions where the speed of ions will rise higher than in normal space by creating the radio- or microwaves that travel to the direction where the exhausting particles are traveling. That electromagnetic field removes the quantum fields that are crossing the flight path of the outcoming particles.

https://scitechdaily.com/nanotube-fibers-stand-strong-but-for-how-long-under-stresses-and-strains/

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

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

Images 1 and 2:https://scitechdaily.com/nanotube-fibers-stand-strong-but-for-how-long-under-stresses-and-strains/

Image3: https://en.wikipedia.org/wiki/Quantum_tunnelling

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