Can quantum entanglement cross the speed of the light?

The answer is yes and no. The quantum entanglement means that the object is superpositioned to two places. That means that making the superposition between two places takes time. Theoretically, there is no limit to the distance of the superpositioned objects. And that means the superposition can be made between galaxies.

But taking the superposition in long distances is connected with natural laws. It can be made in two ways. The particle itself can superposition by increasing its energy level. Or the laser and electron rays can shoot behind that particle, which makes other particles oscillate with the same frequency as the primary particle.

The primary particle will transfer in other particles, and it turns them into its copies. And in this process, there is forming the quantum bridge between those particles. The quantum entanglement means that the superpositioned particles are rotating on opposite sides.

So if we want to create communication between Earth and Alpha Centauri we must take the other part of the superpositioned particle to Alpha Centauri. And then we can use that particle for communication. But why superpositioned particles are not following the laws of physics? The fact is that the superposition means that the particle is just stretched, and the superpositioned particles are like a stick.

They are connected by a quantum bridge, and when the other part of this pair in this pair is moving, the other part is also moving. So that means they are the same particle. We can make superposition, which range is about one meter, and that means it is a theoretical possibility to create superposition, which range is even billions of light-years. We can imagine the stick, what length is one meter.

And in that distance, the superpositioned particles are acting like they are one particle. The energy level determines the length of superposition or distance of the superpositioned particles. The thing is that the superpositioned particles are acting the same way regardless of their distance or length of superposition.

But the limit for that thing is the energy. Creating that kind of communication channel requires huge energy loads, and that thing makes this kind of technology quite hard to create. But superpositioned particles can use as quantum radars, which are scanning surfaces from extremely long distances.

The quantum radars can scan the surface of the hard disks, and they read data from very long distances. If researchers would superposition the atom or electron, what the scanning tunneling microscope uses, they could scan the surfaces and even atoms from huge distances. But taking the superposition in long distances takes time.