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Rényi divergence guarantees for hashing with linear codes

Published 7 May 2024 in cs.IT and math.IT | (2405.04406v2)

Abstract: We consider the problem of distilling uniform random bits from an unknown source with a given pp-entropy using linear hashing. As our main result, we estimate the expected pp-divergence from the uniform distribution over the ensemble of random linear codes for all integer p2p\ge 2. The proof relies on analyzing how additive noise, determined by a random element of the code from the ensemble, acts on the source distribution. This action leads to the transformation of the source distribution into an approximately uniform one, a process commonly referred to as distribution smoothing. We also show that hashing with Reed-Muller matrices reaches intrinsic randomness of memoryless Bernoulli sources in the lpl_p sense for all integer p2p\ge 2.

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