Asymptotic false discovery control of the Benjamini-Hochberg procedure for pairwise comparisons
Weidong Liu, Dennis Leung, Qiman Shao

TL;DR
This paper proves that the Benjamini-Hochberg procedure asymptotically controls the false discovery rate in large-scale pairwise comparisons within ANOVA models, even without positive dependence among test statistics.
Contribution
It establishes asymptotic FDR control for BH in high-dimensional pairwise comparisons under weak dependence and general conditions, extending theoretical understanding.
Findings
BH controls directional FDR asymptotically in large groups
Dependence among t-statistics is sufficiently weak for convergence
Results hold without normality, variance homogeneity, or balanced design
Abstract
In a one-way analysis-of-variance (ANOVA) model, the number of all pairwise comparisons can be large even when there are only a moderate number of groups. Motivated by this, we consider a regime with a growing number of groups, and prove that for testing pairwise comparisons the BH procedure can offer asymptotic control on false discoveries, despite that the t-statistics involved do not exhibit the well-known positive dependence structure called the PRDS to guarantee exact false discovery rate (FDR) control. Sharing Tukey's viewpoint that the difference in the means of any two groups cannot be exactly zero, our main result is stated in terms of the control on the directional false discovery rate and directional false discovery proportion. A key technical contribution is that we have shown the dependence among the t-statistics to be weak enough to induce a convergence result typically…
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Taxonomy
TopicsStatistical Methods in Clinical Trials · Statistical Methods and Bayesian Inference · Optimal Experimental Design Methods
