Quantum synchronization is important for quantum networks.

“An artistic representation of nonreciprocal quantum synchronization. RIKEN researchers have proposed a novel approach for the nonreciprocal quantum synchronization of phonons that is resilient against imperfections and noise. Credit: 2026 RIKEN Center for Quantum Computing” (ScitechDaily, Physicists Solve Major Challenge in Quantum Synchronization)

In the quantum switch, the photon can be pulled over the electron like a rubber band. The quantum switch is the system that transforms. The binary information. Into a quantum form. The quantum switch could hover in a fullerene ball. And that ball transports information into that structure. The system. Makes quantum entanglement between those qubits or quantum dots through the carbon nanotubes that connect those fullerene balls. 

The problem with the quantum systems is this. The system must transform information from binary form into quantum form. The quantum dot or quantum switch that combines two quantum dots can be. The photon is pulled and anchored around particles. Like electrons. Then the system transports information into the electron. And electrons transfer that information into photons. Those are pulled around each electron like rubber bands. Then the system makes. The quantum entanglement between those photons that are around electrons. 

The reason why information can travel faster-than-light in that structure is one of Schrödinger’s cats. Because that system removes one of the fundamental interactions or quantum fields. Or makes some of the quantum fields, like electromagnetic fields, weaker, and muffles entropy. That creates a space where information can travel faster than light travels outside it. So, the system doesn’t break the laws of physics. Light travels faster in that structure than outside it. 

The internet will become safer if we can create a so-called quantum network. The quantum network transports information through a network of superpositioned and entangled particles. And this is the reason why quantum synchronization is so important. Quantum synchronization is required. When information travels between multiple quantum dots. 

Or. Actually reseachers are synchronizing quantum dots using quantum data transportation. Between two quantum dots. The problem is: How to control complex, multilevel systems with thousands, or even billions of quantum dots. This is the reason. Why the AI will boost the system. The problem with quantum entanglement is that energy, or information, can travel only in one direction. Energy can travel only from a higher energy level. To a lower energy level. 

Information travels in quantum entanglement as waves in the energy string that connects those particles. This is the reason. For why the quantum internet requires other types of structures than the regular internet. The structure can be the nanotubes and fullerene ball combinations. The quantum dots hover in the fullerene. 

The entanglements are pulled through those nanotubes. 

This makes it possible to protect those structures and their information against outside effects. Because information can travel in only one direction. The system must keep the transmitting side of the quantum entanglements at a higher level than the receiving side. And this is. The main problem. With a quantum network. It's that there is a limit. Also. In the minimum energy level. This means that there is always a point. Where the system must adjust it. That means it must lift the energy level in the particle. 

So, the system sends the information into the receiving particle. Then. It must rise. Its energy level. Into a higher level. Than the next receiving particle. The problem with this thing is that. When the system. As the particle’s or quantum dot’s energy level rises, it must protect the information that is stored in that particle. 

https://scitechdaily.com/physicists-solve-major-challenge-in-quantum-synchronization/

The IBM Unveils 127 qubit quantum computer.

That quantum computer is a big step to making fully commercial quantum computers. And those quantum computers would open new and bright visions for military and civil purposes. Quantum computers can hack any code that is made by using binary computers. And that thing means that they are causing a need to remake the entire security of the Internet. The history of quantum computers would repeat the history of binary computers. 

At first quantum computers are the systems that are locked at the calculation centers. But then they will turn to every-man machines and perhaps quite soon the regular personnel computers will turn to quantum computers. Things like programming language for quantum computers are bringing more users to them. The new programming language for quantum computers is making them easier to use. 

And user-friendly applications like AI-based code translators are bringing quantum computers to more users. That translator means that well-known computer code like C++, Python, or Jave can turn to quantum computers. And the new quantum programming language will benefit the abilities of the quantum systems. So while we are waiting for the personal quantum computers we can use quantum systems remotely. 

That thing makes it possible. That users can rent the time from the quantum computer centers. And that thing brings more money to the quantum computer projects. More projects and more solutions are bringing the quantum systems more common. But also more powerful and more multi-use. 

Quantum computers are only platforms. The abilities of quantum computers are determined by program code. And those systems might make the revolution in the civil and military systems needed to handle big entireties. The fact is that nobody expects that portable quantum computer have the same capacity as data-center-based fixed systems. 

In the same way. We don't think that a laptop is the same way powerful as a supercomputer.  But when we remember the advantage of supercomputers in the early 1980's systems had 1 mt. memory. We can say that modern laptop are far ahead of those computers. And the same thing will happen with quantum computers. 

The quantum network is at the door. The idea for the nanotube-based quantum network took from the nuclear test "Ivy Mike". 

When the first full-scale thermonuclear weapon detonated at the Marianna archipelago radiation from that bomb was conducted to the sensor by using a vacuum tube. That allowed those particles to reach the sensor before the particles that are traveling in the air. And that made it possible to observe the particles that were released from the hydrogen bomb. 

The quantum wires will protect against outside radiation effects. And then those nanotubes will be covered by electromagnetic fields. The electromagnetic fields are the thing that is covering the qubit against outcoming effects. The qubit could be an electron that rides with the laser rays in those nanotubes. So that thing makes it possible to create a system that connects quantum computers by using qubit-based connections. 

The quantum network can be a series of nanotubes. There might be a laser ray and a powerful electromagnetic field around those tubes. The purpose of those things is to minimize the outcoming errors that are affecting the nanotube. There would be an absolute gas vacuum in that tube. And that makes qubits possible to travel through that tube. '

Because the quantum computer sends photons through the vacuum. They are reaching sensors faster than photons that travel in the medium. The other way is to make the laser ray and the photon would ride in the tube in the fully controlled electromagnetic environment. 

https://www.eejournal.com/article/ibm-unveils-127-qubit-quantum-computer/

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

Image 1:) https://www.eejournal.com/article/ibm-unveils-127-qubit-quantum-computer/

Image 2:) https://en.wikipedia.org/wiki/Ivy_Mike

https://networkedinternet.blogspot.com/