ASYMPTOTICALLY OPTIMAL RANKING AND SELECTION PROCEDURES

Abstract

Single-stage asymptotically optimal (minimax) procedures are developed for ranking populations in the presence of nuisance parameters, when the populations are ranked according to a parameter of the distribution and the so-called indifference-zone approach to ranking and selection problems is employed. This is accomplished by adapting methods used by Weiss and Wolfowitz (for 2-decision tests of composite hypotheses problems in the presence of nuisance parameters) to multiple-decision ranking and selection problems in the presence of nuisance parameters. For the problem of selecting the 'best' population (and for certain other ranking and selection goals), asymptotically optimal procedures are developed for situations in which the joint density function of the observations satisfies certain mild regularity conditions. In addition, the applicability of the basic method is demonstrated by developing asymptotically optimal procedures for ranking non-regular exponential and uniform distributions. The asymptotically optimal character of certain so-called natural selection procedures which already have been proposed in the literature is proved. Single-stage asymptotically optimal procedures are derived for certain problems for which heretofore no single-stage procedures had been proposed.

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Document Details

Document Type
Technical Report
Publication Date
Mar 01, 1970
Accession Number
AD0705181

Entities

People

  • Vijay S. Bawa

Organizations

  • Cornell University

Tags

Communities of Interest

  • C4I

DTIC Thesaurus Topics

  • Covariance
  • Data Science
  • Decision Theory
  • Distribution Functions
  • Engineering
  • Information Science
  • Mathematical Analysis
  • Military Research
  • New York
  • Normal Distribution
  • Operations Research
  • Probability
  • Random Variables
  • Statistical Decision Theory
  • Statistical Inference
  • Statistics
  • Theorems

Fields of Study

  • Mathematics

Readers

  • Regression Analysis.
  • Statistical inference.