Hidden order in quantum entropy makes it possible to break the quantum network. And its security.

"Physicists have uncovered hidden magnetic patterns lurking inside a puzzling state of matter called the pseudogap, which appears just before certain materials become superconductors. Credit: Shutterstock. (ScitechDaily, Superconductivity Breakthrough: Hidden Order Found Inside Quantum Chaos)

We know the thing. Superconductivity makes objects levitate. That levitation is known as the Meissner effect. The effect is formed when all atoms in the system are in the same way. In a very low temperature. Those atoms are in the same quantum field. Because atoms are inside one collective quantum field, that thing makes it possible to push that quantum field up. And because that field is forming a collective bubble that moves the entire object up. In a superconducting wire, the atoms are. Under one collective quantum field. Because electricity travels in that field. There doesn’t form standing waves, and that denies the resistance. 

In the Meissner effect, the electromagnetic fields travel past the object. And. That puts the object to levitate. 

This effect is not possible in the non-superconducting systems. The reason for that is that entropy doesn’t allow the magnetic fields to push objects above the layer. If it is possible to put the atoms in the system into a similar order. As. They are in the superconducting material. It's possible to form the room-temperature Meissner effect. Electromagnetic radiation can form that levitation. So, the system could use. Coherent X-rays to put those atoms in the right order. In some scenarios, the antimatter annihilation can put those atoms into order. The system uses radiation to force those quantum fields into one entirety. And that forms the virtual superconductivity and Meissner effect in that system. 

"Diagram of the Meissner effect. Magnetic field lines, represented as arrows, are excluded from a superconductor when it is below its critical temperature." (Wikipedia, Meissner effect)

Tc=Temperature critical. At that point. The object turns into a superconductor. The Meissner effect is possible.  Below that temperature. If the temperature is higher, the EM field travels through the object. And it cannot raise it up from the ground. This thing makes. The Meissner effect can also occur in stealth systems. The system. That can have the superconducting ability. Can push radio waves to travel past the object, making it invisible to radars. 

Hidden order in quantum entropy makes it possible to break the quantum network. And its security. 

The hidden order found in quantum chaos is one of the most important concepts in quantum technology. The point is that chaos in a limited system cannot be unlimited. The limited chaos means entropy. And the entropy is the thing that makes it impossible to create room-temperature superconductors. But another thing is more important. Chaos protects data that travels in the quantum entanglement. In quantum entanglement. Data travels through an entropic system in a thin fiber. 

And the thing that protects data is the system, which travels as a wave in the quantum channel, where the string goes. The quantum channel is like a shadow. That is formed between those superpositioned and entangled particles. If something finds the order in the entropy that surrounds the quantum entanglement. The attacker can theoretically steal information from the quantum system. 

The idea is that the string that transports information through entropy acts like a guitar spring. Information travels as waves on those strings. And that puts them in resonance with quantum fields around that string. There is a possibility. That. The attacker can thread superpositioned and entangled particle pairs’ transmitting side to that quantum field which surrounds the quantum string.  This could allow the attacker to observe data from the quantum channel. 

This requires that the system find the static route through the entropic system. And that is one way to break the quantum networks. 

https://scitechdaily.com/superconductivity-breakthrough-hidden-order-found-inside-quantum-chaos/

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

Magnetism and quantum computers.

"Researchers at the University of Liège have developed a groundbreaking method to rapidly generate quantum superpositions, known as NOON states, using a combination of geometry and quantum control. This innovation drastically reduces preparation time from minutes to milliseconds, opening the door to practical applications in quantum computing and ultra-precise sensors. Credit: SciTechDaily.com" (ScitechDaily, Quantum Leap: Scientists Slash Atom Superposition Time by 10,000x)

Quantum computers are complicated systems. The quantum computer uses qubits for the data-handling process. Qubits are superpositioned and entangled particles to transport information inside them. Normally those systems use superpositioned and entangled photon pairs. The system traps photons in the frame. 

And then it starts to make the superposition and entanglements. That kind of quantum entanglement is quite hard to control because photons are so weak, that gravitational waves can affect them. 

That makes those qubits a little bit unstable. In a quantum computer, the system drives information into the particle, and then superposition and entanglement start to transport information between two superpositioned and entangled particle pairs.  

"Scientists have discovered over a dozen exotic quantum states using twisted molybdenum ditelluride, potentially paving the way for magnet-free topological quantum computers. Credit: SciTechDaily.com" (ScitechDaily, The Quantum Zoo Just Got Wilder: Magnet-Free States Discovered in Twisted Crystals)

"An illustration depicts an unexpectedly strong attraction between electrons in neighboring lattice sites within a 1D chain of copper oxide, or cuprate – a material that conducts electrical current with no loss at relatively high temperatures in their 2D counterparts. In a recent study, Stanford and SLAC scientists used X-rays to examine the behavior of pairs of spinons – quasiparticles that represent an electron’s spin. This experiment provides further evidence of an unusually strong attractive force not captured by the Hubbard model, the leading theory for predicting electron behavior in solids. Authors say the model fails to explain electron dynamics in cuprates, even in simplified, one-dimensional systems. Credit: SCI-HUA" (ScitechDaily, Superconductivity Mystery: Scientists Challenge a 50-Year Theory of Electron Behavior)

Things like atoms and electrons would be better particles for superposition and entanglements. But their problem is: how to protect those qubits against changes in a magnetic field. If the system can protect superposition and entanglement that makes it possible to transport information between those two particles.  

The new observations about magnetism make it possible to create new fundamental states of quantum technology. What if we could make the cylinder-shaped Hall field or Hall effect and control that field? If we, or researchers, can make the Hall effect that forms a field. 

That is slight inside. They can create a tube that protects the quantum entanglement inside it. The horizontal Hall effect is possible. That thing can make a new type of protective field that denies the internal disturbance. In some wild ideas, the Hall effect field can used as a Tipler time machine, or its quantum version. 

"Scientists have observed the anomalous Hall effect in a collinear antiferromagnet, defying conventional theories by showing it can occur without magnetization, potentially revolutionizing our understanding of quantum materials. Credit: SciTechDaily.com" (ScitechDaily, Rewriting Textbooks: Physicists Discover Anomalous Hall Effect Where It Shouldn’t Exist)

In that case the high-speed spinning magnetic field around the quantum channel. The idea is that The Hall field around those nanotubes will slow the time. In those nanotubes, the data travel between two superpositioned and entangled particles. If the fast spinning field surrounds those quantum channels that should cause time dilation in the nanotube. And that gives the quantum computer more time to operate. 

Another interesting thing is magnet-free states in twisted crystals. Those magnet-free states make it possible to create electron and atomic-scale quantum entanglements. The complex system entanglements can be the key to the new types of quantum systems. Information can travel between those two complex systems through their quantum fields. 

And if the system can make quantum entanglement using electrons or atoms it makes it easier to control those qubits. But the problem is the magnetic states. The system must protect those superpositioned and entangled particles against magnetic fields and especially against changes in the magnetic fields. 

https://scitechdaily.com/quantum-leap-scientists-slash-atom-superposition-time-by-10000x/

https://scitechdaily.com/the-quantum-zoo-just-got-wilder-magnet-free-states-discovered-in-twisted-crystals/

https://scitechdaily.com/rewriting-textbooks-physicists-discover-anomalous-hall-effect-where-it-shouldnt-exist/

https://scitechdaily.com/superconductivity-mystery-scientists-challenge-a-50-year-theory-of-electron-behavior/