#' Transcriptional Rewiring package for R.
#'
#' @section Available tools:
#'
#' \itemize{
#'
#' \item *LINKER* generates, from an initial RNA-Seq dataset where drivers
#' (Transcription Factors) and targets genes are provided, GRN modules in three different
#' forms: as raw results, from the phase I output modules; as modules from the phase II
#' output modules and in the form of bipartite graphs, where drivers and targets relationships
#' are defined. This is done using the `LINKER_run()` function. `?LINKER_run` for more information.
#'
#' \item *LINKER* also provides a way of generating a single GRN from specified
#' list of driver and target genes. This ease the task of analyzing relationships between
#' drivers and targets by constraining all the provided genes to be only in a single GRN.
#' This is done by `NET_run()` function. Type `?NET_run` for more information
#'
#' \item The *Rewiring* test performs a permutation test over a certain condition to infer
#' if that condition is producing any deregulation on our generated GRN. Bootstrapping plays
#' an important role, as the non-convex nature of this biological events makes necessary to
#' ensure that a certain behavior is repeated across bootstraps, and to confirm this event
#' does not come from a particular realization. As bootstrapping has been performed in LINKER,
#' this step will take advantage of them and will try to group highly scored modules, to infer
#' modules similar behavior GRN across bootstraps. It will outputs a correlation matrix in the
#' form of a heatmap (sorted by hierarchical clustering to ease interpretation), containing
#' similar highly scored modules. `preparerewiring()` will return an object containing the
#' necessary information for calling `runrewiring()` and generate graph objects, reports and graphs.
#' Type `?preparerewiring` and `?runrewiring` for more information.
#'
#' \item The *Visualization* module contains a graphical way of detecting condition-dependent
#' deregulation on the selected rewired modules containing gene regulatory networks. Once we
#' have selected a cluster of modules that across bootstraps have similar behavior as GRN,
#' we can generate single GRNs of the genes that belong to those modules, filtering by samples
#' that belong to the condition we want to evaluate. Check `plot_igraph`,`return_layout` and
#' `return_layout_phenotype`.
#'
#' \item The *Results* module generate an excel file is containing drivers-targets relationships
#' and cliques. The way LINKER method works can make some highly-correlated driver genes (TFs)
#' may be dropped from the resultant model, as the role they play at the GRN inference process is
#' very similar. Due to this, we propose a method based on cliques (Fully Connected Networks) to
#' recover those dropped drivers. Check `excel_generation` and `generatecliques` for more information.
#'
#'
#' }
#' @docType package
#' @keywords internal
#' @name TraRe
"_PACKAGE"
.onAttach <- function(libname, pkgname) {
msg <- sprintf(
"Package '%s' is deprecated and will be removed from Bioconductor
version %s", pkgname, "3.17")
.Deprecated(msg=paste(strwrap(msg, exdent=2), collapse="\n"))
}
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