 Sep 2022

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TLDR Hyperion is a moon orbiting Saturn and has chaotic motion about its CoM. This chaos is modeled correctly with classical mechanics but incorrectly with quantum mechanics. The catch being that if the average of all wavefunction collapses due to decoherence with interactions particles+photons is included then the prediction is correct. However, averaging is a nonphysical process and, furthermore, collapsing a wavefunction requires instantaneous transfer of information which is nonphysical.
 Saturn's moon, Hyperion, has chaotic motion due to the orientation of the moon about the orbit. Due to chaos, we can't predict orientation due to chaotic tumbling.
 This can be described classicly with relativity.
 Quantum Mechancis has been falsified because it fails to recreate or predict chaotic behaviors of the moon after 20 years.
 Due to the linear nature of the eigenvector in Schrodinger's equation, it can not contain chaos.
 By applying the correspondence principle, we only see chaos for up to the Ehrenfest time upon having the time function applied.
 Physicists explain this incongruence in theories because the Schrodinger equation isn't including the entangled interactions of light/dust. These effects result in decoherence.
 By averaging over the predictions we achieve the same solution as classical mechanics. Howevering averaging isn't a physical process. (e.g. rolling a 6 sided dice many times gives an average of 3.5 which is nonphysical)
For a model to be real, we require that each individual prediction is true not the average. One solution is that Hyperion interacts and is having it's wavefunction updated nonlinearly resulting in decoherence. * Collapse of a wavefunction is said to not be physical due to instantaneous transfer of information being impossible. However, this wavefunction collapse due to interactions is required for the chaos of Hyperion to be modeled correctly. This is the issue.
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