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Quantum Minimax Theorem

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arxiv 1410.3639 v1 pith:XL2OJFEB submitted 2014-10-14 quant-ph math.STstat.TH

classification quant-phmath.STstat.TH
keywords quantumtheoremminimaxstatisticsbeenclassicaldecisionfavorable
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Recently, many fundamental and important results in statistical decision theory have been extended to the quantum system. Quantum Hunt-Stein theorem and quantum locally asymptotic normality are typical successful examples. In the present paper, we show quantum minimax theorem, which is also an extension of a well-known result, minimax theorem in statistical decision theory, first shown by Wald and generalized by LeCam. Our assertions hold for every closed convex set of measurements and for general parametric models of density operator. On the other hand, Bayesian analysis based on least favorable priors has been widely used in classical statistics and is expected to play a crucial role in quantum statistics. According to this trend, we also show the existence of least favorable priors, which seems to be new even in classical statistics.

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  1. Dimension-Free Polylogarithmic Quantum Shadow Tomography from Sequential Pretty-Good Measurements

    quant-ph 2026-08 conditional novelty 8.0 of 10

    New sequential pretty-good measurement protocol achieves dimension-free shadow tomography with sample complexity O(1/eps^2 * (log(M/delta))^4 / (log log(M/delta))^3).

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