Researchers created an 11-mile (17,7 km.) long quantum wire that transports data between two systems. This kind of thing makes quantum systems interesting. That photonic quantum highway is the beginning of the more powerful quantum computers and high-power and secure data transmission.
Because data that is stored in the photon that travels in the network must be well protected, these kinds of experiments act as pathfinders for many other systems like antimatter tools and antimatter and ion weapons. The key element in successful quantum data transmission is that the photon will not interact with quantum fields.
And the walls of the quantum channel. The same technology is suitable for transporting antimatter particles like positrons and anti-protons. Those tracks can also make it possible to transport antimatter particles to the rocket engines or across the air to selected targets.
The main difference between quantum and regular networks is this: In quantum networks data that travels in the quantum network is connected with physical particles. The quantum network requires systems that can turn the data that travels in the network into a universal form. And the second thing is that data that travels in the quantum network must be protected.
The main problem is how to use one quantum channel for transporting multiple data types with multiple destinations. Without the ability to deny data that doesn’t mean anything, that system will turn very busy. The GSM system can send data packages to multiple receivers and guarantee privacy with simple tricks. Every data package that travels in the GSM network is equipped with a small code.
That code opens the lock to the precise right receiver. At the beginning of the data transmission, the GSM systems like cell phones make key exchange operations. In those processes, those systems exchange keys that allow only selected receivers to open those data packages. The process itself has three stages. First, the transmitter sends a query to the general broadcast address. There, the transmitter asks if the receiver is in the net. Then those systems start to communicate using fixed keys. And in the final step, those systems start to use single-use keys. When data transmission is over those single-use keys will be crushed.
That should secure privacy. And the other thing is that it makes the receiving system’s operations easier. The meaningless data stays out of the gate because the receiving system rejects that unnecessary data. If that process is done in the system itself that will require lots of data capacity. The system uses single-used keys in that process. The random number generator will make those prime numbers that those GSM phones use in data transportation. The quantum system also requires random numbers.
The main problem is that the simplest possible quantum systems where the transmitter sends the wire or frequency where it sends data the hijacker can steal data is that the hostile operator knows the data line. The random number generator allows us to solve the right frequency. The random numbers are required in short-term keys. The main problem with the normal random number generators is that they can create virtual random numbers. Those virtual random numbers are generated with computers that use certain types of calculation series. And if the attacker can have the source code for those generators they can break the entire system.
The system must have the capacity to see the right data transporters or qubits before they reach the receiving sensor. That system must have the capacity to aim the wrong qubits, or qubits that involve the wrong dataset to another track.
https://scitechdaily.com/researchers-build-11-mile-long-quantum-highway-using-photons/
https://scitechdaily.com/spooky-action-real-results-turning-quantum-weirdness-into-secure-random-numbers/
