Nothing
##' Appetite scores of colorectal cancer patients
##'
##' Data from one of the quality of life measurements collected from colorectal
##' cancer patients enrolled in the North Central Cancer Treatment Group phase
##' III trials N9741. The patient received three treatment regimens: IFL
##' (irinotecan, bolus fluorouracil, and leucovorin), FOLFOX (infused
##' fluorouracil, leucovorin, and ocaliplatin), and IROX (irinotecan and
##' oxaliplatin).
##'
##' The objective is to test whether there are differences between the
##' treatment regimens in terms of different appetite scores.
##'
##' @name appetite
##' @docType data
##' @format A data frame with 174 observations on the following 2 variables.
##' \describe{ \item{list("Group")}{A factor with levels \code{FOLFOX}
##' \code{IFL} \code{IROX}.} \item{list("Score")}{A numeric vector containing
##' the appetite scores.} }
##' @source Ryu, E. (2009): Simultaneous confidence intervals using ordinal
##' effect measures for ordered categorical outcomes. Statistics In Medicine,
##' 28(25), 3179-3188.
##' @keywords datasets
##' @examples
##'
##' library(nparcomp)
##' data(appetite)
##'
NULL
##' Numbers of corpora lutea
##'
##' Data from a fertility trial with 92 female Wistar rats: numbers of the
##' corpora lutea in a placebo group and in 4 dose groups with an increasing
##' dose of an active treatment.
##'
##' The objective is to test if the active treatment influences the fertiliy of
##' the rats.
##'
##' @name colu
##' @docType data
##' @format A data frame with 92 observations on the following 2 variables.
##' \describe{ \item{list("dose")}{A factor with levels \code{dose1},
##' \code{dose2}, \code{dose3}, \code{dose4}, \code{Placebo}, where Placebo is
##' the placebo group and dose1-dose4 are the 4 dose groups with an increasing
##' dose.} \item{list("corpora")}{A numeric vector containing the numbers of
##' the corpora lutea.} }
##' @source Brunner, E., Munzel, U. (2002): Nichtparametrische Datenanalyse -
##' Unverbundene Stichproben. Statistik und ihre Anwendungen, Springer-Verlag.
##' @keywords datasets
##' @examples
##'
##' library(nparcomp)
##' data(colu)
##' boxplot(corpora~dose,data=colu)
##'
NULL
##' Numbers of implantations
##'
##' Data from a fertility trial with 29 female Wistar rats: numbers of the
##' implantations in a placebo group and in an active treatment group.
##'
##' The objective is to test if the active treatment influences the fertiliy of
##' the rats.
##'
##' @name impla
##' @docType data
##' @format A data frame with 29 observations on the following 2 variables.
##' \describe{ \item{list("group")}{A factor with levels \code{Placebo},
##' \code{Verum}, where Verum denotes the active treatment group.}
##' \item{list("impla")}{A numeric vector.} }
##' @source Brunner, E., Munzel, U. (2002): Nichtparametrische Datenanalyse -
##' Unverbundene Stichproben. Statistik und ihre Anwendungen, Springer-Verlag.
##' @keywords datasets
##' @examples
##'
##' library(nparcomp)
##' data(impla)
##' boxplot(impla~group,data=impla)
##'
NULL
##' Relative liver weights
##'
##' Data from a toxicity trial with male Wistar rats: Relative liver weights in
##' a negative control group and in 4 dose groups with an increasing dose of an
##' active treatment. After treatment the relative liver weights of the rats
##' were computed.
##'
##' The objective is to test if the active treatment influences the liver
##' weight of the rats.
##'
##' @name liver
##' @docType data
##' @format A data frame with 38 observations on the following 2 variables.
##' \describe{ \item{list("dosage")}{A numeric vector indicating the
##' dose/control group.} \item{list("weight")}{A numeric vector containing the
##' relative liver weights.} }
##' @source Brunner, E., Munzel, U. (2002): Nichtparametrische Datenanalyse -
##' Unverbundene Stichproben. Statistik und ihre Anwendungen, Springer-Verlag.
##' @keywords datasets
##' @examples
##'
##' data(liver)
##' boxplot(weight~dosage,data=liver)
##'
NULL
##' Nparcomp: Nonparametric relative contrast effects.
##'
##' With this package, it is possible to compute nonparametric simultaneous
##' confidence intervals for relative contrast effects in the unbalanced one
##' way layout. Moreover, it computes simultaneous p-values. The simultaneous
##' confidence intervals can be computed using multivariate normal
##' distribution, multivariate t-distribution with a Satterthwaite
##' Approximation of the degree of freedom or using multivariate range
##' preserving transformations with Logit or Probit as transformation function.
##' 2 sample comparisons can be performed with the same methods described
##' above. There is no assumption on the underlying distribution function, only
##' that the data have to be at least ordinal numbers.
##'
##' \tabular{ll}{ Package: \tab nparcomp\cr Type: \tab Package\cr Version: \tab
##' 1.0-0\cr Date: \tab 2012-06-22\cr License: \tab GPL\cr }
##'
##' @name nparcomp-package
##' @docType package
##' @author Frank Konietschke
##'
##' Maintainer: Frank Konietschke <fkoniet@@gwdg.de>
##' @references Konietschke, F. (2009). Simultane Konfidenzintervalle fuer
##' nichtparametrische relative Kontrasteffekte. PhD-thesis, University of
##' Goettingen.
##'
##' Konietschke, F., Brunner, E., Hothorn, L.A. (2008). Nonparametric Relative
##' Contrast Effects: Asymptotic Theory and Small Sample Approximations,
##' Research report.
##'
##' Munzel. U., Hothorn, L.A. (2001). A unified Approach to Simultaneous Rank
##' Tests Procedures in the Unbalanced One-way Layout. Biometric Journal, 43,
##' 553-569.
##' @keywords package htest
##' @examples
##'
##'
##' # two sample comparisons: Nonparametric Behrens-Fisher Problem
##'
##' data(impla)
##' a<-npar.t.test(impla~group, data = impla,
##' method = "t.app",
##' alternative = "two.sided")
##' summary(a)
##' plot(a)
##'
##'
##'
##' #--Analysis of relative contrast effects in different contrast settings
##'
##' data(liver)
##'
##' # Williams Contrast
##'
##' a<-nparcomp(weight ~dosage, data=liver, asy.method = "probit",
##' type = "Williams", alternative = "two.sided",
##' plot.simci = TRUE, info = FALSE)
##' summary(a)
##'
##'
##' # Dunnett dose 3 is baseline
##'
##' c<-nparcomp(weight ~dosage, data=liver, asy.method = "probit",
##' type = "Dunnett", control = "3",alternative = "two.sided",
##' plot.simci = TRUE, info = FALSE)
##' summary(c)
##'
##'
##'
##' data(colu)
##'
##' # Tukey comparison - one sided(lower)
##'
##' a<-nparcomp(corpora~ dose, data=colu, asy.method = "mult.t",
##' type = "Tukey",alternative = "less")
##' summary(a)
##' plot(a)
##'
##' # Tukey comparison- one sided(greater)
##'
##' b<-nparcomp(corpora~ dose, data=colu, asy.method = "mult.t",
##' type = "Tukey",alternative = "greater")
##' summary(b)
##' plot(b)
##'
##'
NULL
##' Clinical Global Impression (CGI) Scores
##'
##' Scores for the clinical global impression (CGI) measured on an ordinal
##' scale (ranging from 2 to 8) during eight weeks for 16 patients with panic
##' disorder attacks in a psychiatric clinical trial.
##'
##' Note that the first observation in each week corresponds to the first
##' patient, the second one to the second patient, and so on. There are 5
##' repeated measures per patient.
##'
##' @name panic
##' @docType data
##' @format A data frame with 80 observations on the following 2 variables.
##' \describe{ \item{list("CGI")}{A numeric vector containing the CGI score.}
##' \item{list("week")}{A numeric vector indicating the week (0,2,4,6,8) of
##' measurement.} }
##' @source Brunner, E., Domhof, S., Langer, F. (2002): Nonparametric Analysis
##' of Longitudinal Data in Factorial Experiments. Wiley, New York.
##' @keywords datasets
##' @examples
##'
##' data(panic)
##' boxplot(CGI~week,data=panic)
##'
NULL
##' Patient Rated Global Impression (PGI) Scores
##'
##' Scores for the patient rated global impression (PGI) measured on an ordinal
##' scale (ranging from 1 to 6) being observed at baseline and after 4 weeks of
##' treatment. The lower the score, the better the clinical impression.
##'
##'
##' @name PGI
##' @docType data
##' @format A data frame with 30 observations on the following 3 variables.
##' \describe{ \item{list("patient")}{A numeric vector indicating the
##' patients.} \item{list("timepoint")}{A numeric vector indicating the week
##' (0,2,4,6,8) of measurement.} \item{list("PGIscore")}{A numeric vector
##' containing the PGI score.} }
##' @source Munzel, U., Brunner, E. (2002). An Exact Paired Rank Test.
##' Biometrical Journal 44, 584-593.
##' @keywords datasets
##' @examples
##'
##' data(PGI)
##' boxplot(PGIscore~timepoint,data=PGI)
##'
NULL
##' Reaction times of mice [sec]
##'
##' Data from a toxicity trial with 40 mice.
##'
##' The objective is to test if the active treatment influences the reaction
##' time of the mice.
##'
##' @name reaction
##' @docType data
##' @format A data frame with 40 observations on the following 2 variables.
##' \describe{ \item{list("Group")}{A numeric vector indicating the group.}
##' \item{list("Time")}{A numeric vector containing the reaction times.} }
##' @references Shirley, E. (1977). Nonparametric Equivalent of Williams Test
##' for Contrasting Increasing Dose Levels of a Treatment. Biometrics 33, 386 -
##' 389.
##' @source Shirley, E. (1977). Nonparametric Equivalent of Williams Test for
##' Contrasting Increasing Dose Levels of a Treatment. Biometrics 33, 386 -
##' 389.
##' @keywords datasets
##' @examples
##'
##' library(nparcomp)
##' data(reaction)
##' boxplot(Time~Group,data=reaction)
##'
NULL
Any scripts or data that you put into this service are public.
Add the following code to your website.
For more information on customizing the embed code, read Embedding Snippets.