Permutation Methods [electronic resource] : A Distance Function Approach /

The introduction of permutation tests by R. A. Fisher relaxed the paramet­ ric structure requirement of a test statistic. For example, the structure of the test statistic is no longer required if the assumption of normality is removed. The between-object distance function of classical test statis­ tics based on the assumption of normality is squared Euclidean distance. Because squared Euclidean distance is not a metric (i. e. , the triangle in­ equality is not satisfied), it is not at all surprising that classical tests are severely affected by an extreme measurement of a single object. A major purpose of this book is to take advantage of the relaxation of the struc­ ture of a statistic allowed by permutation tests. While a variety of distance functions are valid for permutation tests, a natural choice possessing many desirable properties is ordinary (i. e. , non-squared) Euclidean distance. Sim­ ulation studies show that permutation tests based on ordinary Euclidean distance are exceedingly robust in detecting location shifts of heavy-tailed distributions. These tests depend on a metric distance function and are reasonably powerful for a broad spectrum of univariate and multivariate distributions. Least sum of absolute deviations (LAD) regression linked with a per­ mutation test based on ordinary Euclidean distance yields a linear model analysis which controls for type I error.

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Main Authors: Mielke, Paul W. author., Berry, Kenneth J. author., SpringerLink (Online service)
Format: Texto biblioteca
Language:eng
Published: New York, NY : Springer New York : Imprint: Springer, 2001
Subjects:Statistics., Statistical Theory and Methods.,
Online Access:http://dx.doi.org/10.1007/978-1-4757-3449-2
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spelling KOHA-OAI-TEST:1927902018-07-30T23:17:39ZPermutation Methods [electronic resource] : A Distance Function Approach / Mielke, Paul W. author. Berry, Kenneth J. author. SpringerLink (Online service) textNew York, NY : Springer New York : Imprint: Springer,2001.engThe introduction of permutation tests by R. A. Fisher relaxed the paramet­ ric structure requirement of a test statistic. For example, the structure of the test statistic is no longer required if the assumption of normality is removed. The between-object distance function of classical test statis­ tics based on the assumption of normality is squared Euclidean distance. Because squared Euclidean distance is not a metric (i. e. , the triangle in­ equality is not satisfied), it is not at all surprising that classical tests are severely affected by an extreme measurement of a single object. A major purpose of this book is to take advantage of the relaxation of the struc­ ture of a statistic allowed by permutation tests. While a variety of distance functions are valid for permutation tests, a natural choice possessing many desirable properties is ordinary (i. e. , non-squared) Euclidean distance. Sim­ ulation studies show that permutation tests based on ordinary Euclidean distance are exceedingly robust in detecting location shifts of heavy-tailed distributions. These tests depend on a metric distance function and are reasonably powerful for a broad spectrum of univariate and multivariate distributions. Least sum of absolute deviations (LAD) regression linked with a per­ mutation test based on ordinary Euclidean distance yields a linear model analysis which controls for type I error.1 Introduction -- 2 Description of MRPP -- 3 Further MRPP Applications -- 4 Description of MRBP -- 5 Regression Analysis, Prediction, and Agreement -- 6 Goodness-of-Fit Tests -- 7 Contingency Tables -- 8 Multisample Homogeneity Tests -- A Computer Programs -- A.1 Chapter 2 -- A.2 Chapter 3 -- A.3 Chapter 4 -- A.4 Chapter 5 -- A.5 Chapter 6 -- A.6 Chapter 7 -- A.7 Chapter 8 -- References.The introduction of permutation tests by R. A. Fisher relaxed the paramet­ ric structure requirement of a test statistic. For example, the structure of the test statistic is no longer required if the assumption of normality is removed. The between-object distance function of classical test statis­ tics based on the assumption of normality is squared Euclidean distance. Because squared Euclidean distance is not a metric (i. e. , the triangle in­ equality is not satisfied), it is not at all surprising that classical tests are severely affected by an extreme measurement of a single object. A major purpose of this book is to take advantage of the relaxation of the struc­ ture of a statistic allowed by permutation tests. While a variety of distance functions are valid for permutation tests, a natural choice possessing many desirable properties is ordinary (i. e. , non-squared) Euclidean distance. Sim­ ulation studies show that permutation tests based on ordinary Euclidean distance are exceedingly robust in detecting location shifts of heavy-tailed distributions. These tests depend on a metric distance function and are reasonably powerful for a broad spectrum of univariate and multivariate distributions. Least sum of absolute deviations (LAD) regression linked with a per­ mutation test based on ordinary Euclidean distance yields a linear model analysis which controls for type I error.Statistics.Statistics.Statistical Theory and Methods.Springer eBookshttp://dx.doi.org/10.1007/978-1-4757-3449-2URN:ISBN:9781475734492
institution COLPOS
collection Koha
country México
countrycode MX
component Bibliográfico
access En linea
En linea
databasecode cat-colpos
tag biblioteca
region America del Norte
libraryname Departamento de documentación y biblioteca de COLPOS
language eng
topic Statistics.
Statistics.
Statistical Theory and Methods.
Statistics.
Statistics.
Statistical Theory and Methods.
spellingShingle Statistics.
Statistics.
Statistical Theory and Methods.
Statistics.
Statistics.
Statistical Theory and Methods.
Mielke, Paul W. author.
Berry, Kenneth J. author.
SpringerLink (Online service)
Permutation Methods [electronic resource] : A Distance Function Approach /
description The introduction of permutation tests by R. A. Fisher relaxed the paramet­ ric structure requirement of a test statistic. For example, the structure of the test statistic is no longer required if the assumption of normality is removed. The between-object distance function of classical test statis­ tics based on the assumption of normality is squared Euclidean distance. Because squared Euclidean distance is not a metric (i. e. , the triangle in­ equality is not satisfied), it is not at all surprising that classical tests are severely affected by an extreme measurement of a single object. A major purpose of this book is to take advantage of the relaxation of the struc­ ture of a statistic allowed by permutation tests. While a variety of distance functions are valid for permutation tests, a natural choice possessing many desirable properties is ordinary (i. e. , non-squared) Euclidean distance. Sim­ ulation studies show that permutation tests based on ordinary Euclidean distance are exceedingly robust in detecting location shifts of heavy-tailed distributions. These tests depend on a metric distance function and are reasonably powerful for a broad spectrum of univariate and multivariate distributions. Least sum of absolute deviations (LAD) regression linked with a per­ mutation test based on ordinary Euclidean distance yields a linear model analysis which controls for type I error.
format Texto
topic_facet Statistics.
Statistics.
Statistical Theory and Methods.
author Mielke, Paul W. author.
Berry, Kenneth J. author.
SpringerLink (Online service)
author_facet Mielke, Paul W. author.
Berry, Kenneth J. author.
SpringerLink (Online service)
author_sort Mielke, Paul W. author.
title Permutation Methods [electronic resource] : A Distance Function Approach /
title_short Permutation Methods [electronic resource] : A Distance Function Approach /
title_full Permutation Methods [electronic resource] : A Distance Function Approach /
title_fullStr Permutation Methods [electronic resource] : A Distance Function Approach /
title_full_unstemmed Permutation Methods [electronic resource] : A Distance Function Approach /
title_sort permutation methods [electronic resource] : a distance function approach /
publisher New York, NY : Springer New York : Imprint: Springer,
publishDate 2001
url http://dx.doi.org/10.1007/978-1-4757-3449-2
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