Bayesian Nonparametric Sensitivity Analysis of Multiple Test Procedures Under Dependence
George Karabatsos

TL;DR
This paper develops a Bayesian nonparametric sensitivity analysis method for multiple testing procedures using Dirichlet process priors, allowing for uncertainty quantification under arbitrary dependence among p-values.
Contribution
It introduces a novel DP-based sensitivity analysis framework for MTPs that accounts for dependence and reduces conservativeness in multiple testing.
Findings
Applied to a large U.S. high school dataset with 28,000 p-values.
Demonstrated uncertainty quantification in multiple testing decisions.
Provided software implementation in R.
Abstract
This article introduces a sensitivity analysis method for Multiple Testing Procedures (MTPs) using marginal -values. The method is based on the Dirichlet process (DP) prior distribution, specified to support the entire space of MTPs, where each MTP controls either the family-wise error rate (FWER) or the false discovery rate (FDR) under arbitrary dependence between -values. This DP MTP sensitivity analysis method provides uncertainty quantification for MTPs, by accounting for uncertainty in the selection of such MTPs and their respective threshold decisions regarding which number of smallest -values are significant discoveries, from a given set of null hypothesis tested, while measuring each -value's probability of significance over the DP prior predictive distribution of this space of all MTPs, and reducing the possible conservativeness of using only one such MTP for…
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Taxonomy
TopicsOptimal Experimental Design Methods · Advanced Statistical Methods and Models · Statistical Methods and Inference
