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Inference under Information Constraints II: Communication Constraints and Shared Randomness

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arxiv 1905.08302 v2 pith:X73VMESQ submitted 2019-05-20 cs.DS cs.DMcs.ITcs.LGmath.ITmath.STstat.TH

classification cs.DScs.DMcs.ITcs.LGmath.ITmath.STstat.TH
keywords distributioninferencesample-optimaltestingcommunicationconstraintsdistributedlearning
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A central server needs to perform statistical inference based on samples that are distributed over multiple users who can each send a message of limited length to the center. We study problems of distribution learning and identity testing in this distributed inference setting and examine the role of shared randomness as a resource. We propose a general-purpose simulate-and-infer strategy that uses only private-coin communication protocols and is sample-optimal for distribution learning. This general strategy turns out to be sample-optimal even for distribution testing among private-coin protocols. Interestingly, we propose a public-coin protocol that outperforms simulate-and-infer for distribution testing and is, in fact, sample-optimal. Underlying our public-coin protocol is a random hash that when applied to the samples minimally contracts the chi-squared distance of their distribution to the uniform distribution.

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  1. Pauli Measurements Are Near-Optimal for Single-Qubit Tomography

    quant-ph 2025-07 conditional novelty 7.0 of 10

    Single-qubit measurements need Ω(10^N/(√N ε²)) copies for N-qubit tomography, matching the Pauli-measurement upper bound up to a √N factor.

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