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Hypothesis Testing on Invariant Subspaces of the Symmetric Group, Part I - Quantum Sanov's Theorem and Arbitrarily Varying Sources

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arxiv 1310.5553 v1 pith:73KVBSEK submitted 2013-10-21 quant-ph cs.ITmath-phmath.ITmath.MPmath.RT

classification quant-phcs.ITmath-phmath.ITmath.MPmath.RT
keywords quantumhypothesistheoremarbitrarilybasicestimationgivengroup
verification ladder T0 review T1 audit T2 compute T3 formal
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We report a proof of the quantum Sanov Theorem by elementary application of basic facts about representations of the symmetric group, together with a complete characterization of the optimal error exponent in a situation where the null hypothesis is given by an arbitrarily varying quantum source instead. Our approach differs from previous ones in two points: First, it supports a reasoning inspired by the method of types. Second, the measurement scheme we propose to distinguish the two alternatives not only does that job asymptotically perfect, but also yields additional information about the null hypothesis. An example of that is given. The measurement is composed of projections onto permutation-invariant subspaces, thus providing a direct link between one of the most basic tasks in quantum information on the one hand side and fundamental objects in representation theory on the other. We additionally connect to representation theory by proving a relation between Kostka numbers and quantum states, and to state estimation via a generalization of a well-known spectral estimation theorem to non-i.i.d. sequences.

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  1. Maximum channel entropy principle and microcanonical channels

    quant-ph 2025-08 unverdicted novelty 7.0 of 10

    A maximum-entropy principle for quantum channels yields thermal channels with exponential form, analogous to thermal states.

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