What would you do with photons which are in two positions at the same time?

"A view into one of the two vacuum chambers. Inside: the mount of the cavity (rectangular metal box). In the mount: two conically shaped objects in white. These are two cavity mirrors. The distance between the mirrors is 0.5 mm and the researchers trap a single rubidium atom between these mirrors. (Credit: Max-Planck-Institute of Quantum Optics)

"(https://physicsworld.com/a/atom-cavity-sees-the-same-photon-tw)

In the (Physicsworld. com) is an article about photonic superposition. The experiments of Max Planck institute researchers have proven that The atomic cavity sees the same photon in the two positions at the same time. Or those sensors can see the same photon twice.

The thing is that the same photon can be in two positions at the same time. That can happen without destroying the photon can be open new and interesting ideas in the mind of scientists. The effect has been seen in the optic fiber, and that thing can use to make extremely high-accurate sensors and delivering information in the long-range. Or even that effect can be seen in the short distances, that thing makes it possible to make ultra-secured qubit.

The thing where the photon can position in two places at the same time can make the more compact and less sensitive quantum computers. The qubits can form in the optic fibers, which are like the guitar strings in the system. That thing can protect the data better than magnetic qubits.

Those superpositioned photons can be used to make the qubits, which can be carried in the quantum USB stick. The vision is that the data is loaded in the photons, which are in the optic fibers. The data is stored in the photons. And if that process is done with doubled photons, that allows keeping the copies of those photonic qubits in the source system. Copying the data can happen by doubled photons. The photons that are stored in portable memory can stress by using doubled photons. Then those photons, what is in the portable system will double to the target system.

Then the system can remove from the computer, and it can have an internal power source. Then that quantum USB, which can be the size of the briefcase or even bigger can double those photons in the targeted system. In the next step, the system can ask to verify the data from the source system by using those stored photons. The fact is that the size of portable quantum USB disks might be quite big. But the size of the systems turns more compact when technology advances.

()https://physicsworld.com/a/atom-cavity-sees-the-same-photon-twice/

Image:()https://physicsworld.com/a/atom-cavity-sees-the-same-photon-twice/

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