featureAdjustment(variableList,
baseModel,
strata = "NA",
data,
referenceframe,
type = c("LM", "GLS"),
pvalue = 0.05,
correlationGroup = "ID")
data
that stores the variable that will be used to stratify the model
data
, but with only the control population
data
that stores the variable to be used to group the data (only needed if type
defined as "GLS")
data
at each strata
## Not run:
# # Start the graphics device driver to save all plots in a pdf format
# pdf(file = "Example.pdf")
# # Get the stage C prostate cancer data from the rpart package
# library(rpart)
# data(stagec)
# # Split the stages into several columns
# dataCancer <- cbind(stagec[,c(1:3,5:6)],
# gleason4 = 1*(stagec[,7] == 4),
# gleason5 = 1*(stagec[,7] == 5),
# gleason6 = 1*(stagec[,7] == 6),
# gleason7 = 1*(stagec[,7] == 7),
# gleason8 = 1*(stagec[,7] == 8),
# gleason910 = 1*(stagec[,7] >= 9),
# eet = 1*(stagec[,4] == 2),
# diploid = 1*(stagec[,8] == "diploid"),
# tetraploid = 1*(stagec[,8] == "tetraploid"),
# notAneuploid = 1-1*(stagec[,8] == "aneuploid"))
# # Remove the incomplete cases
# dataCancer <- dataCancer[complete.cases(dataCancer),]
# # Generate a reference frame
# controls <- dataCancer[which(dataCancer$pgstat == 0),]
# # Load a pre-stablished data frame with the names and descriptions of all variables
# data(cancerVarNames)
# # Adjust the g2 variable to age
# adjDataCancer<-featureAdjustment(variableList = cancerVarNames[2,],
# baseModel = "1 + age",
# data = dataCancer,
# referenceframe = controls,
# type = "LM")
# # Shut down the graphics device driver
# dev.off()## End(Not run)
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