Optimal Algorithms for Testing Closeness of Discrete Distributions
arXiv:1308.3946
Abstract
We study the question of closeness testing for two discrete distributions. More precisely, given samples from two distributions and over an -element set, we wish to distinguish whether versus is at least $\eps$-far from , in either or distance. Batu et al. gave the first sub-linear time algorithms for these problems, which matched the lower bounds of Valiant up to a logarithmic factor in , and a polynomial factor of $\eps.$ In this work, we present simple (and new) testers for both the and settings, with sample complexity that is information-theoretically optimal, to constant factors, both in the dependence on , and the dependence on $\eps$; for the testing problem we establish that the sample complexity is $Θ(\max\{n^{2/3}/\eps^{4/3}, n^{1/2}/\eps^2 \}).$
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