Nothing
## see list of possible command line options at the end.
## just for checking validity of arguments passed to eE from getExpression
.argCheck.eELegacy <- function(probFile, outFile, parFile=NULL, outputType=NULL, gibbs=NULL, trInfoFile=NULL, thetaActFile=NULL, MCMC_burnIn=NULL, MCMC_samplesN=NULL, MCMC_samplesSave=NULL, MCMC_samplesNmax=NULL, MCMC_chainsN=NULL, MCMC_scaleReduction=NULL, MCMC_dirAlpha=NULL, seed=NULL, verbose=NULL, pretend=FALSE){
return(TRUE);
}
.argCheck.eE <- function(probFile, outFile, parFile=NULL, outputType=NULL, gibbs=NULL, trInfoFile=NULL, thetaActFile=NULL, MCMC_burnIn=NULL, MCMC_samplesN=NULL, MCMC_samplesSave=NULL, MCMC_chainsN=NULL, MCMC_dirAlpha=NULL, seed=NULL, verbose=NULL, procN=NULL, pretend=FALSE){
return(TRUE);
}
## Call of estimateExpression which uses [new] default method for convergence checking.
estimateExpression <- function(probFile, outFile, parFile=NULL, outputType=NULL, gibbs=NULL, trInfoFile=NULL, thetaActFile=NULL, MCMC_burnIn=NULL, MCMC_samplesN=NULL, MCMC_samplesSave=NULL, MCMC_chainsN=NULL, MCMC_dirAlpha=NULL, seed=NULL, verbose=NULL, procN=NULL, pretend=FALSE){
args <- c('estimateExpression ',probFile, '--outPrefix', outFile)
if (!is.null(parFile)){
args <- c(args, '--parFile', parFile )
}
if (!is.null(outputType)) {
args <- c(args, '--outType', outputType)
}
if ((!is.null(gibbs)) && (gibbs)){
args <- c(args, '--gibbs')
}
if (!is.null(trInfoFile)) {
args <- c(args, '--trInfoFile', trInfoFile )
}
if (!is.null(thetaActFile)) {
args <- c(args, '--thetaActFile', thetaActFile)
}
if (!is.null( MCMC_burnIn)) {
args <- c(args, '--MCMC_burnIn',MCMC_burnIn )
}
if (!is.null( MCMC_samplesN)) {
args <- c(args, '--MCMC_samplesN', MCMC_samplesN)
}
if (!is.null( MCMC_samplesSave)) {
args <- c(args, '--MCMC_samplesSave',MCMC_samplesSave )
}
if (!is.null( MCMC_chainsN)) {
args <- c(args, '--MCMC_chainsN', MCMC_chainsN)
}
if (!is.null( MCMC_dirAlpha)) {
args <- c(args, '--MCMC_dirAlpha', MCMC_dirAlpha)
}
if (!is.null(seed)) {
args <- c(args, '--seed', seed)
}
if (!is.null(verbose) && (verbose)) {
args <- c(args, '--verbose')
}
if (!is.null(procN)) {
args <- c(args, '--procN', procN)
}
## print(args)
if(pretend){
writeLines(.specialPaste(args))
}else{
argc <- length(args);
## dyn.load(paste("src/estimateExpression", .Platform$dynlib.ext, sep=""));
result <- .C('_estimateExpression', as.integer(argc), as.character(args));
}
}
## Legacy call of estimateExpression which uses old method for convergence checking based on "--scaleReduction".
estimateExpressionLegacy <- function(probFile, outFile, parFile=NULL, outputType=NULL, gibbs=NULL, trInfoFile=NULL, thetaActFile=NULL, MCMC_burnIn=NULL, MCMC_samplesN=NULL, MCMC_samplesSave=NULL, MCMC_samplesNmax=NULL, MCMC_chainsN=NULL, MCMC_scaleReduction=NULL, MCMC_dirAlpha=NULL, seed=NULL, verbose=NULL, pretend=FALSE){
## , procN=NULL
args <- c('estimateExpression', '--scaleReduction',probFile, '--outPrefix', outFile)
if (!is.null(parFile)){
args <- c(args, '--parFile', parFile )
}
if (!is.null(outputType)) {
args <- c(args, '--outType', outputType)
}
if ((!is.null(gibbs)) && (gibbs)){
args <- c(args, '--gibbs')
}
if (!is.null(trInfoFile)) {
args <- c(args, '--trInfoFile', trInfoFile )
}
##if (!is.null(procN)) {
## args <- c(args, '--procN', procN)
##}
if (!is.null(thetaActFile)) {
args <- c(args, '--thetaActFile', thetaActFile)
}
if (!is.null( MCMC_burnIn)) {
args <- c(args, '--MCMC_burnIn',MCMC_burnIn )
}
if (!is.null( MCMC_samplesN)) {
args <- c(args, '--MCMC_samplesN', MCMC_samplesN)
}
if (!is.null( MCMC_samplesSave)) {
args <- c(args, '--MCMC_samplesSave',MCMC_samplesSave )
}
if (!is.null( MCMC_samplesNmax)) {
args <- c(args, '--MCMC_samplesNmax', MCMC_samplesNmax)
}
if (!is.null( MCMC_chainsN)) {
args <- c(args, '--MCMC_chainsN', MCMC_chainsN)
}
if (!is.null( MCMC_scaleReduction)) {
args <- c(args, '--MCMC_scaleReduction', MCMC_scaleReduction)
}
if (!is.null( MCMC_dirAlpha)) {
args <- c(args, '--MCMC_dirAlpha', MCMC_dirAlpha)
}
if (!is.null(seed)) {
args <- c(args, '--seed', seed)
}
if (!is.null(verbose) && (verbose)) {
args <- c(args, '--verbose')
}
## print(args)
if(pretend){
writeLines(.specialPaste(args))
}else{
argc <- length(args);
## dyn.load(paste("src/estimateExpression", .Platform$dynlib.ext, sep=""));
result <- .C('_estimateExpression', as.integer(argc), as.character(args));
}
}
## Options:
## --help
## Show this help information.
##
## --MCMC_burnIn=<MCMC_burnIn>
## Length of sampler's burn in period. (default: 1000)
##
## --MCMC_chainsN=<MCMC_chainsN>
## Number of parallel chains used. At least two chains will be used. (default: 4)
##
## --MCMC_dirAlpha=<MCMC_dirAlpha>
## Alpha parameter for the Dirichlet distribution. (default: 1)
##
## --MCMC_samplesDOmax
## Produce maximum number of samples (samplesNmax) in second iteration and quit. (default: Off)
##
## --MCMC_samplesN=<MCMC_samplesN>
## Initial number of samples produced. Doubles after every iteration. (default: 1000)
##
## --MCMC_samplesNmax=<MCMC_samplesNmax>
## Maximum number of samples produced in one iteration. After producing samplesNmax samples sampler finishes. (default: 50000)
##
## --MCMC_samplesSave=<MCMC_samplesSave>
## Number of samples recorder in total. (default: 1000)
##
## --MCMC_scaleReduction=<MCMC_scaleReduction>
## Target scale reduction, sampler finishes after this value is met. (default: 1.2)
##
## -G , --gibbs
## Use gibbs sampling instead of collapsed gibbs sampling. (default: Off)
##
## -o <outFilePrefix> , --outPrefix=<outFilePrefix>
## Prefix for the output files.
##
## -O <outputType> , --outType=<outputType>
## Output type (theta, RPKM, counts, tau). (default: theta)
##
## -p <parFileName> , --parFile=<parFileName>
## File containing parameters for the sampler, which can be otherwise specified by --MCMC* options. As the file is checked after every MCMC iteration, the parameters can be adjusted while running.
##
## -P <procN> , --procN=<procN>
## Limit the maximum number of threads to be used. (Default is the number of MCMC chains.)
##
## --scaleReduction
## Use scale reduction as stopping criterion, instead of computing effective sample size. (default: Off)
##
## -s <seed> , --seed=<seed>
## Random initialization seed.
##
## --thetaActFile=<thetaActFileName>
## File for logging noise parameter theta^{act}.
##
## -t <trInfoFileName> , --trInfoFile=<trInfoFileName>
## File containing transcript information. (Necessary for RPKM)
##
## -v , --verbose
## Verbose output. (default: Off)
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