Beginner's Guide to Quantum Entanglement
No Fortune writes "Einstein called it 'Spooky action at a distance.' This article describes, in scientific layman's terms, how spooky action is created." From the article: "Normally the photons exit the crystal such that one is aligned in a horizontally (H) polarized light cone, the other aligned vertically (V). By adjusting the experiment, the horizontal and vertical light cones can be made to overlap. Even though the polarization of the individual photons is unknown, the nature of quantum mechanics demands they differ."
Sorry, no. If the coins aren't at the same place, then this term "at that particular instant" is not well defined.
The tantalizing notions of instant communication involve choosing which of two or more possible measurements to make on one of the photons (after they are separated) and the effects of that choice on the possible outcomes of a fixed or independently-chosen experiment on the other photon. Google "EPR Paradox" for a primer.
"But all your emitter and collector are belong to me!"
It is just that your example is purely classical physics, it is causal, so that the QM entanglement is not shown at all, and QM entanglement for your example is not predicted by any one.
Caused states must not communicate at a distance, this is classical behavior. But, uncaused quantum transitions have the appearance of at-a-distance communication simply because quantum states do not have a classical position. Only the classical manifestations of a quantum state have their separate positions.
Quantum states themselves resemble categorical propositions in their lack of having a location. For example, where is the proposition, "Roses are red.", located? It becomes much more atractive than one first imagines to state that quantum states are actually a sort of categorical propostion.
Michael J. Burns
While we are on the subject of Quantum Mechanics. Check out Caltech's website on Quantum Computers.
I would also like to put you towards HP's Research on it.
The future is quantum mechanics, no matter the subject.
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The hidden variables theory of quantum mechanics was disproven by a physicists named John Bell. In his method, he began by assuming that these "hidden variables" existed, then, using geometric arguments and the postulates of quantum mechanics, derived a set of inequalities which showed no physical theory of local hidden variables can ever reproduce all of the predictions of quantum mechanics.
It's not intuitive at all, but Bell's argument is sound. Entanglement and action-at-a-distance is real, and not due to the system's state being pre-determined by hidden variables.
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