TY - JOUR
T1 - Sequential multiple testing with generalized error control
T2 - An asymptotic optimality theory 1
AU - Song, Yanglei
AU - Fellouris, Georgios
N1 - Funding Information:
Received August 2016; revised April 2018. 1Supported in part by NSF Grants CCF-1514245 and DMS-1737962 and in part by the Simons Foundation under Grant C3663. MSC2010 subject classifications. 62L10. Key words and phrases. Multiple testing, sequential analysis, asymptotic optimality, generalized familywise error rates, misclassification rate.
Publisher Copyright:
© Institute of Mathematical Statistics, 2019.
PY - 2019/1
Y1 - 2019/1
N2 - The sequential multiple testing problem is considered under two generalized error metrics. Under the first one, the probability of at least k mistakes, of any kind, is controlled. Under the second, the probabilities of at least k 1 false positives and at least k 2 false negatives are simultaneously controlled. For each formulation, the optimal expected sample size is characterized, to a first-order asymptotic approximation as the error probabilities go to 0, and a novel multiple testing procedure is proposed and shown to be asymptotically efficient under every signal configuration. These results are established when the data streams for the various hypotheses are independent and each local log-likelihood ratio statistic satisfies a certain strong law of large numbers. In the special case of i.i.d. observations in each stream, the gains of the proposed sequential procedures over fixed-sample size schemes are quantified.
AB - The sequential multiple testing problem is considered under two generalized error metrics. Under the first one, the probability of at least k mistakes, of any kind, is controlled. Under the second, the probabilities of at least k 1 false positives and at least k 2 false negatives are simultaneously controlled. For each formulation, the optimal expected sample size is characterized, to a first-order asymptotic approximation as the error probabilities go to 0, and a novel multiple testing procedure is proposed and shown to be asymptotically efficient under every signal configuration. These results are established when the data streams for the various hypotheses are independent and each local log-likelihood ratio statistic satisfies a certain strong law of large numbers. In the special case of i.i.d. observations in each stream, the gains of the proposed sequential procedures over fixed-sample size schemes are quantified.
KW - Asymptotic optimality
KW - Generalized familywise error rates
KW - Misclassification rate
KW - Multiple testing
KW - Sequential analysis
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U2 - 10.1214/18-AOS1737
DO - 10.1214/18-AOS1737
M3 - Article
AN - SCOPUS:85062945838
SN - 0090-5364
VL - 47
SP - 1776
EP - 1803
JO - Annals of Statistics
JF - Annals of Statistics
IS - 3
ER -