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The butterfly effect can be a useful tool in quantum computers.



Another name for the "Butterfly effect" is Lorenz's strange attractor. In this text, Lorenz's strange attractor and attractor mean Lorenz's butterfly. Or simple "Butterfly effect". 

In data security "Butterfly effect" can use for synchronizing the oscillation circuits. That means nobody outside those synchronized systems cannot read the information that travels in a superpositioned system. The system detects if somebody tries to put the antenna in the system. If something turns in the (Lorentz's strange) attractor. The system detects changes in the level of the magnetic field. 

Same way if the superconducting wire will touch by an outside antenna that causes energy to flow away from the wire. That means the receiving voltage would not match the calculated level. The superconducting systems have no resistance. So the energy level that is transmitted in the superconducting system remains the same when it reaches the receiver. If something conducts electricity away. That means there will be a loss in the voltage level. And system recognizes that thing and makes alarm of the attacker. 

Lorenz's strange attractor or Lorenz's Butterfly ("The Butterfly effect")is a perfect tool for synchronizing magnetic fields. In that process, magnetic field oscillation can multiply. The power of the magnetic fields must not the same. If the oscillation of the magnetic field is the same. But strength is different energy flows to lower energy areas. That allows transmitting data in quantum computers.

When we want to make two identical magnetic fields we can create Lorenz's butterfly around those two objects. The attractor can use to transfer data from binary system to quantum system. 

That thing can also create to multiply qubits. And that thing can be a revolutionary thing in quantum computers. By using a series of qubits is possible to make the solid-state quantum annealing quantum computer or qubit.

 One version of the quantum annealing system can be the carbon nanotube where Lorenz's strange attractors are transferring data between those carbon atoms. Or carbon atoms can be replaced by using fullerene balls. 

The qubit can be the noble gas atom. Trapped inside the fullerene balls. And the radiation stress will transfer the oscillation between those atoms. The fullerene ball acts as an antenna that receives the signal from the noble gas. 

The attractor can use to make two identical data groups. And that thing makes it possible to create the error detection system for a binary and quantum system. 

The main problem with the error correction is how to detect errors? The error detection requires a minimum of two identical data flows. The computer will compare the differences in those data lines. If there are differences in those data flows there is some kind of error. And the error can be in the input. Or it can be caused by the outcoming non-controlled effect. 

By using Lorentz's attractor is possible to make the surrounding data flow in quantum computers. And that thing is making it possible to make the system that calculates series and extremely complicated algorithms. That kind of system can solve problems like are there zero points in Riemann's conjecture? Lorenz's strange attractor is the model of the system which is strengthening itself. 

When Lorenz's strange attractor gets outcoming energy. The energy level increases until the system can transmit energy somewhere. That thing makes it possible to transmit qubits in the quantum USB. If data can store in the solid material in the form of qubits. 

The Lorenz's attractor can use to transmit data to the main system. The other part of the attractor will get an energy push. And that makes energy flow to the lower energy area. So that thing makes it possible to transport data between systems. 


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


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https://thoughtsaboutsuperpositions.blogspot.com/

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