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stglyde
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It is said nothing can escape the Event Horizon, not even light. How about an entangled pair that is inside the event horizon and outside it. Would they still be entangled such that they still form correlations?
Actually, there is. First measure the outside particle, and then jump into to black hole to measure the inside one. Of course, after the measurement you will crash into the black-hole singularity (or whatever sits in the black-hole center), but at least you will die happy knowing that the horizon does not destroy the correlations.tom.stoer said:yes, they are entangled, but there's no way to find out whether they are entangled or not;
Demystifier said:Actually, there is. First measure the outside particle, and then jump into to black hole to measure the inside one. Of course, after the measurement you will crash into the black-hole singularity (or whatever sits in the black-hole center), but at least you will die happy knowing that the horizon does not destroy the correlations.
tom.stoer said:an idea would be to try to understand this from the perspecive of an observer inside the event horizon; for this observer entanglement should be verifiable / falsifiable b/c he can receive information from the outside
I imagine that the impact factor of the resulting manuscript would be rather low, even if you took some peer-reviewers along with you.Demystifier said:Actually, there is. First measure the outside particle, and then jump into to black hole to measure the inside one. Of course, after the measurement you will crash into the black-hole singularity (or whatever sits in the black-hole center), but at least you will die happy knowing that the horizon does not destroy the correlations.
In order to get the paper written and peer-reviewed before spaghettification the black hole has to be rather largeDaleSpam said:I imagine that the impact factor of the resulting manuscript would be rather low, even if you took some peer-reviewers along with you.
Unless you use superluminal neutrinos to send information OUT of the black hole. :tongue:DaleSpam said:I imagine that the impact factor of the resulting manuscript would be rather low, even if you took some peer-reviewers along with you.
I believe the black hole in the center of our galaxy would be large enough.tom.stoer said:In order to get the paper written and peer-reviewed before spaghettification the black hole has to be rather large
And even still, I hear the tidal forces inside will tear you apart pretty rapidly.tom.stoer said:In order to get the paper written and peer-reviewed before spaghettification the black hole has to be rather large
Quantum entanglement is a phenomenon in which two or more particles become connected in such a way that the state of one particle is dependent on the state of the other, regardless of the distance between them.
Quantum entanglement can occur both inside and outside of event horizons, which are the boundary of a black hole where the escape velocity exceeds the speed of light. The entanglement between particles inside and outside the event horizon can affect the behavior of matter and energy around a black hole.
Yes, quantum entanglement can exist inside an event horizon. However, once a particle crosses the event horizon, it is no longer possible to observe its state or measure its entanglement with other particles outside the event horizon.
Hawking radiation is a theoretical type of radiation emitted by black holes due to the quantum effects near the event horizon. Quantum entanglement inside and outside the event horizon can impact the rate and characteristics of Hawking radiation, potentially altering our understanding of this phenomenon.
The study of quantum entanglement inside and outside event horizons is still in its early stages, but it has the potential to greatly enhance our understanding of black holes, gravity, and the fundamental laws of the universe. It may also have practical applications in quantum computing and communication technologies.