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Non-Contextual Hidden Variables and Physical Measurements

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arxiv quant-ph/9906006 v3 pith:XI5DVZKE submitted 1999-06-01 quant-ph

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keywords measurementsfinitehiddenprecisiontheoryvariabledenseindistinguishable
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For a hidden variable theory to be indistinguishable from quantum theory for finite precision measurements, it is enough that its predictions agree for some measurement within the range of precision. Meyer has recently pointed out that the Kochen-Specker theorem, which demonstrates the impossibility of a deterministic hidden variable description of ideal spin measurements on a spin 1 particle, can thus be effectively nullified if only finite precision measurements are considered. We generalise this result: it is possible to ascribe consistent outcomes to a dense subset of the set of projection valued measurements, or to a dense subset of the set of positive operator valued measurements, on any finite dimensional system. Hence no Kochen-Specker like contradiction can rule out hidden variable theories indistinguishable from quantum theory by finite precision measurements in either class.

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  1. Quantum Memory Advantage from Contextuality

    quant-ph 2026-07 unverdicted novelty 6.0 of 10

    Quantum automata solve exclusivity-graph promise problems with dimension O(n) versus classical 2^Omega(n) states via representational contextuality, maintaining O(1) noise threshold.

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