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tim1608
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How and where is quantum entanglement orchestrated? Does it require a deeper, non-spacial level of existence where the distance between entangled particles is irrelevant?
questionpost said:The other explanation is there are extra dimensions, and entangled particles occupy the same 5 dimensional space but different locations in 3 dimensional space.
tim1608 said:Is this like folding a piece of paper in such a way that two or more points on the piece of paper are touching each other?
Is it possible that a 5-dimensional representation of the human brain would reveal a very sharp focal point for all of the brain's information?
questionpost said:Probably not. A lot of what your saying is over-exaggerated.
questionpost said:Probably not. A lot of what your saying is over-exaggerated.
tim1608 said:Please explain.
Quantum entanglement is a phenomenon in which two or more particles become connected in a way that their states are dependent on each other, regardless of the distance between them. This means that any change in one particle's state will affect the other(s) instantaneously. It is important because it allows for the creation of secure communication channels and has potential applications in quantum computing.
Quantum entanglement can be orchestrated through various methods, such as using photons, ions, or superconducting qubits. These particles are manipulated using lasers, magnetic fields, and other techniques to create entanglement between them. The specific method used depends on the desired application and the capabilities of the technology being used.
One of the main challenges in orchestrating quantum entanglement is maintaining the entangled state for a long enough time to perform operations on it. This requires precise control over the particles involved and minimizing external disturbances. Another challenge is scaling up the entanglement to include more particles, as this increases the complexity and potential for errors.
Quantum entanglement is used in quantum communication to create secure channels for transmitting information. This is because any attempt to intercept or measure the entangled particles would disrupt their state, alerting the sender and receiver to the presence of a third party. This allows for secure transmission of information without the need for encryption.
Besides quantum communication and computing, orchestrating quantum entanglement has potential applications in fields such as cryptography, teleportation, and sensing. It may also lead to new discoveries in fundamental physics, as the study of entanglement can provide insights into the nature of reality at a quantum level.