The technique used here emphasizes pivotal quantities and ancillary statistics relevant for optimization or obtaining prediction limits (or intervals) for anticipated outcomes under parametric uncertainty and is applicable whenever the statistical problem is invariant under a group of transformations that acts transitively on the parameter space. It does not require the construction of any tables and is applicable whether the experimental data are complete or Type II censored. The exact prediction limits on order statistics associated with sampling from underlying distributions can be found easily and quickly making tables, simulation, Monte-Carlo estimated percentiles, special computer programs, and approximation unnecessary. The proposed analytical methodology is illustrated in terms of the exponential distribution. Applications to other log-location-scale distributions could follow directly.

错误:搜索内容不能为空,请输入英文关键词
错误:关键词超出字数限制,请精简
高级检索

Computational Science and Intelligence for Eliminating Uncertainty from Applied Mathematical Models of Real-Life Problems via Pivotal Quantities and Ancillary Statistics to Construct Adequate Statistical Decisions

  • Nicholas Nechval,
  • Gundars Berzins,
  • Konstantin Nechval

摘要

The technique used here emphasizes pivotal quantities and ancillary statistics relevant for optimization or obtaining prediction limits (or intervals) for anticipated outcomes under parametric uncertainty and is applicable whenever the statistical problem is invariant under a group of transformations that acts transitively on the parameter space. It does not require the construction of any tables and is applicable whether the experimental data are complete or Type II censored. The exact prediction limits on order statistics associated with sampling from underlying distributions can be found easily and quickly making tables, simulation, Monte-Carlo estimated percentiles, special computer programs, and approximation unnecessary. The proposed analytical methodology is illustrated in terms of the exponential distribution. Applications to other log-location-scale distributions could follow directly.