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Loren Booda
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Could entanglement arise from the continuity of the initial universal singularity?
Initial universal singularity is sort of physically meaningless isn't it? Suppose the universe began as a more or less spherical volume encompassing 10's or 100's of cubic light years. Suppose ... well the speculative possibilities are seemingly infinite (even if the universe isn't).Loren Booda said:Could entanglement arise from the continuity of the initial universal singularity?
Or you can opt for the incompleteness of qm as a description of physical reality, which iirc is what EPR did.Loren Booda said:The EPR experiment was claimed to show quantum mechanics' "spooky action at a distance."
If "thrown out" means adopted or posited, then it's adopted only because there's no precise description, in terms of local interactions, of how quantum correlations happen, and also because the qm formalism is interpreted by some to imply FTL or non-locality.Loren Booda said:The first mechanism to be thrown out in explaining this phenomenon is usually superluminal signaling.
Well, we're not living in an inflationary epoch, so it's hard to imagine how these velocities would be pertinent now.Loren Booda said:Can inflationary velocities, though, be modeled to corroborate quantum statistics?
What do you mean by "all events to be in phase" ?Loren Booda said:According to the Big Bang theory, spacetime is supposed to have originated from a singularity. Could not that all spacetime has a common origin tend all events to be in phase, evoking the observed correlations of entanglement?
iirc, one of the reasons for the inflation idea was the question of how the cosmic microwave background radiation could be so, apparently, nearly isotropic if the areas from which the radiation was originally emitted were spacelike separated (ie., how could what looks like the thermal equilibrium of the cmbr have happened between areas that couldn't have communicated with each other given the assumption that the speed of light is a universal limit.Loren Booda said:Suppose entanglement operates at the speed of inflation. Guth's hypothesis would then also account for quantum statistical correlation.
Loren Booda said:The EPR experiment was claimed to show quantum mechanics' "spooky action at a distance." The first mechanism to be thrown out in explaining this phenomenon is usually superluminal signaling. Can inflationary velocities, though, be modeled to corroborate quantum statistics?
According to the Big Bang theory, spacetime is supposed to have originated from a singularity. Could not that all spacetime has a common origin tend all events to be in phase, evoking the observed correlations of entanglement?
Loren Booda said:ZapperZ,
I would guess that decoherence implies interference within a system more complex than bipartite. A bipartite system itself still remains entangled when measured once by an outside observer.
I posit that even myriad events evolving in totality from a mutual singularity maintain a measurable semblance of entanglement.
Loren Booda said:It is relatively easy to maintain the entanglement of a bipartite system until it is disturbed by (have its wavefunction physically interfered with the wavefunction of) a macroscopic measuring device or correspondent environment.
Several banks are purportedly using entanglement to transmit simple codes without reasonable possibility of evesdropping. If intercepted, such a code (bipartite based, if you wish) would collapse into a random sequence.
Entanglement of common cosmological origin refers to the phenomenon in which two or more particles become entangled due to their shared history or origin in the early universe. This means that their physical properties are correlated and any changes to one particle will affect the other, even if they are separated by vast distances.
Entanglement of common cosmological origin is believed to occur during the rapid expansion of the early universe, known as inflation. During this process, particles are created and spread out across the universe, but they remain connected through their shared origin and continue to influence each other's properties.
Entanglement of common cosmological origin has important implications for our understanding of the universe and its fundamental laws. It suggests a deep connection between particles and the universe as a whole, and may help us better understand concepts such as quantum gravity and the nature of space and time.
At the moment, we do not have the technology to directly observe entanglement of common cosmological origin. However, scientists are working on ways to indirectly detect this phenomenon through experiments that involve entangling particles in controlled settings, such as in quantum computers.
Entanglement of common cosmological origin is a type of quantum entanglement, which is a phenomenon where particles become connected and influence each other's properties even when separated by large distances. However, unlike other forms of entanglement that can be created in a lab, entanglement of common cosmological origin is a result of the universe's expansion and the laws of physics.