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Relaxing some restrictionsand definitions from quantum theory proper yields an axiomatic framework that can be applied to any type of system. Most importantly, it keeps the core of the quantum theoretical formalism. It is capable of handling complementary observables, i.e. descriptors which are non-commuting, incompatible and yet collectively required to fully describe certain situations. It also predicts a generalised form of non-local correlations that in quantum theory are known as entanglement. This generalised version is not quantum entanglement but an analogue form of holistic, non-local connectedness of elements within systems, predicted to occur whenever elements within systems are described by observables which are complementary to the description of the whole system.
Originally posted by tgidkp
reply to post by Confusion42
you keep giving is this line about "nothing wrong with 'quantum mysticism'."
I agree. there isn't.
however, the term itself has an underlying assumption about the nature of the information to which it is being referenced. specifically, that the information is not only CURRENTLY unproven, but that it CAN NEVER BE proven.
that is a very very bold statement. it is a categorical dismissal ...you should stop pretending that it is otherwise. if you're gonna be a jerk, just own it. what's with the pretense? that was my objection about the what the bleep comment, etc. you put on such high airs. but who the hell do YOU think YOU are?!
besides, in only a very short few years, you will be on the wrong side of history. quantum theory is already being applied in ways which, according to you, are only mystical.
If GQT were a correct
description of reality, then in such an experimental system we should be able to observe
entanglement. However, no indication for entanglement was detected in the experiments.
More detailed analysis revealed that the experimental systems I developed did not
operationalize in a satisfactory way all the theoretical requirements and that in fact this 9
may be difficult to achieve even in principle. Therefore, the finding that no entanglement
was observed in these experiments cannot be interpreted unambiguously to either support
or disprove GQT. While on the one hand GQT may simply be wrong with respect to
generalized entanglement, it is also possible that the experiments simply did not
adequately fulfill some of the theoretical requirements for generalized entanglement to
occur. What is more, my theoretical analysis will show that it may be in principle
impossible to design an experiment that does fulfill these requirements.
It may be important to point out that much of this theoretical analysis took place after the
experiments had been conducted. This explains why in chapter 4 of this dissertation I will
report experiments which in light of the analysis presented in chapter 3 may not seem to
have been very promising in the first place. Ideally, in scientific progress, negative results
will lead to the formulation of new hypotheses, which in turn can be tested again
experimentally. In the case of generalized entanglement, however, I have come to the
conclusion that a rigorous experimental proof is probably impossible as a matter of
principle. If that is so, the question about its existence will have to be assessed on grounds
of plausibility and circumstantial evidence rather than the potential experimental
falsification of its nonexistence.