  A resurgence of interest in multiple hypothesis testing has occurred in the
last decade. Motivated by studies in genomics, microarrays, DNA sequencing,
drug screening, clinical trials, bioassays, education and psychology,
statisticians have been devoting considerable research energy in an effort to
properly analyze multiple endpoint data. In response to new applications, new
criteria and new methodology, many ad hoc procedures have emerged. The
classical requirement has been to use procedures which control the strong
familywise error rate (FWE) at some predetermined level \alpha. That is, the
probability of any false rejection of a true null hypothesis should be less
than or equal to \alpha. Finding desirable and powerful multiple test
procedures is difficult under this requirement. One of the more recent ideas is
concerned with controlling the false discovery rate (FDR), that is, the
expected proportion of rejected hypotheses which are, in fact, true. Many
multiple test procedures do control the FDR. A much earlier approach to
multiple testing was formulated by Lehmann [Ann. Math. Statist. 23 (1952)
541-552 and 28 (1957) 1-25]. Lehmann's approach is decision theoretic and he
treats the multiple endpoints problem as a 2^k finite action problem when there
are k endpoints. This approach is appealing since unlike the FWE and FDR
criteria, the finite action approach pays attention to false acceptances as
well as false rejections.
