[Patchwork-commits] r126 - in pkg: patchwork patchwork/R patchwork/inst patchwork/man patchworkCG patchworkCG/R patchworkCG/example_plots patchworkCG/man

noreply at r-forge.r-project.org noreply at r-forge.r-project.org
Fri Apr 20 11:07:54 CEST 2012


Author: sebastian_d
Date: 2012-04-20 11:07:54 +0200 (Fri, 20 Apr 2012)
New Revision: 126

Added:
   pkg/patchwork/inst/README
   pkg/patchwork/man/zzz.Rd
   pkg/patchworkCG/example_plots/README
   pkg/patchworkCG/man/zzz.Rd
Removed:
   pkg/patchwork/README
   pkg/patchworkCG/README
Modified:
   pkg/patchwork/DESCRIPTION
   pkg/patchwork/R/patchwork.plot.r
   pkg/patchwork/R/zzz.R
   pkg/patchwork/man/karyotype_check.Rd
   pkg/patchworkCG/R/zzz.R
Log:
Updates to documentation, added ?patchworkCG.readme ?patchwork.readme and placed README files of package in alternative location so that they will get sent with package. also updated onload messages so people can find help

Modified: pkg/patchwork/DESCRIPTION
===================================================================
--- pkg/patchwork/DESCRIPTION	2012-04-19 09:47:15 UTC (rev 125)
+++ pkg/patchwork/DESCRIPTION	2012-04-20 09:07:54 UTC (rev 126)
@@ -2,7 +2,7 @@
 Type: Package
 Title: Allele-specific Copy Number Analysis of whole genome data
 Version: 2.1
-Date: 2012-11-01
+Date: 2012-17-04
 Author: Markus Rasmussen, Sebastian DiLorenzo
 Maintainer: Markus Rasmussen <Markus.Mayrhofer at medsci.uu.se>
 Description: Performs a copy number analysis of whole genome data.

Modified: pkg/patchwork/R/patchwork.plot.r
===================================================================
--- pkg/patchwork/R/patchwork.plot.r	2012-04-19 09:47:15 UTC (rev 125)
+++ pkg/patchwork/R/patchwork.plot.r	2012-04-20 09:07:54 UTC (rev 126)
@@ -85,7 +85,8 @@
 		{
 		cat("Initiating Segmentation \n")
 		cat("Note: If segmentation fails to initiate the probable reason is that you have not ")
-		cat("installed the R package DNAcopy. See patchwork's README for installation instructions. \n")
+		cat("installed the R package DNAcopy. See the homepage, http://patchwork.r-forge.r-project.org/ ,
+			or ?patchwork.readme for installation instructions. \n")
 		segs = patchwork.segment(kbsegs,chroms,Alpha,SD)
 		save(segs,file="Segments.Rdata")
 		cat("Segmentation Complete \n")

Modified: pkg/patchwork/R/zzz.R
===================================================================
--- pkg/patchwork/R/zzz.R	2012-04-19 09:47:15 UTC (rev 125)
+++ pkg/patchwork/R/zzz.R	2012-04-20 09:07:54 UTC (rev 126)
@@ -1,12 +1,11 @@
 .onLoad <- function(...){
 	#supressMessages(library(DNAcopy))
-	packageStartupMessage("(Above is just the startup message of DNAcopy.)")
 	packageStartupMessage("\n")
 	packageStartupMessage("Welcome to patchwork.")
 	packageStartupMessage("\n")
 	packageStartupMessage("Version: ",utils::packageDescription('patchwork')$Version)
 	packageStartupMessage("\n")
-	packageStartupMessage("If this is your first time, please see the documentation in")
-	packageStartupMessage("the README file at the default installation location, the")
-	packageStartupMessage("homepage (http://patchwork.r-forge.r-project.org/) or ?patchwork")
+	packageStartupMessage("If this is your first time running patchwork you should visit the")
+	packageStartupMessage("homepage at (http://patchwork.r-forge.r-project.org/) or see ?patchwork.readme")
+	packageStartupMessage("or the README file found at the install location of patchwork/inst/README")
 	}

Deleted: pkg/patchwork/README
===================================================================
--- pkg/patchwork/README	2012-04-19 09:47:15 UTC (rev 125)
+++ pkg/patchwork/README	2012-04-20 09:07:54 UTC (rev 126)
@@ -1,489 +0,0 @@
-Welcome to Patchwork.
-
-/--------------------------------------/
-http://patchwork.r-forge.r-project.org/
-/--------------------------------------/
-
-It is highly recommended that you visit the webpage for this project as it contains the most recently updated
-information and instructions regarding everything patchwork.
-
-/-------------------/
-Installation Guide:
-/-------------------/
-
-For patchwork to run correctly, or even install, you will need to install DNACopy from Bioconductor.
-
-Start R (as of writing version 2.14.2)
-
-Text with a ">" infront is R executions.
-
-    > source("http://bioconductor.org/biocLite.R")
-    > biocLite("DNAcopy")
-
-After DNAcopy is installed you can install patchwork and patchworkData using these commands:
-
-    > install.packages("patchworkData", repos="http://R-Forge.R-project.org")
-    > install.packages("patchwork", repos="http://R-Forge.R-project.org")
-
-If for some reason that does not work add the 'type="source"' to it, as so:
-
-    > install.packages("patchworkData", repos="http://R-Forge.R-project.org",type="source")
-    > install.packages("patchwork", repos="http://R-Forge.R-project.org",type="source")
-
-
-/-------------------/
-	Tutorial:
-/-------------------/
-
-	/-------------------/
-		Requirements:
-	/-------------------/
-
-A Reference Human Genome fasta file, for example HumanGenome19.fasta.
-
-At the time of writing there should be several places you can find this; The Sanger institute, 1000genomes project etc. You probably already have one as you needed one previously for the alignment of your tumor sequence.
-
-Your samples ,sorted, BAM and BAI file:
-	To get BAI run "samtools index <yourfile>.bam"
-	To sort a bamfile "samtools sort <yourfile>.bam <sortedfile>.bam"
-
-A Pileup of your sample created with the 0.1.18 or older version of samtools.
-	"samtools pileup -vcf <reference.fasta> <yourfile>.bam > <yourpileup>"
-
-The pileup should have this format:
-
-less pileup
-	chr1    10179   c       W       0       0       60      5       ,,tna   ##6!3
-	chr1    10180   t       W       6       6       60      5       ,,,aa   ##369
-	chr1    10377   a       R       0       1       60      1       g       @
-	chr1    11391   t       A       0       3       60      1       a       B
-	chr1    18592   C       Y       0       3       60      1       t       B
-	chr1    23359   c       S       0       2       60      1       g       A
-	chr1    24067   A       R       0       2       60      1       G       A
-	chr1    30315   G       C       3       24      60      2       cC      =;
-	chr1    92200   a       W       0       3       60      1       t       B
-	chr1    96592   T       C       0       3       60      1       C       B
-	chr1    100140  a       M       0       1       60      1       C       @
-	chr1    104697  g       K       0       2       60      1       T       A
-	chr1    127285  A       R       0       3       60      1       g       B
-
-
-(optional) A matched normal sample to your tumor in BAM 
-(optional) A pileup of your normal sample BAM
-(optional) A standard Reference file. (Illumina/Solexa, SOLiD or your own)
-
-What we mean by this (optional) tag is that you do not need to have all these
-files. There is really no point in using all of them. 
-
-If you have a matched normal sample you should make a pileup of this and use those two arguments.
-
-In some cases it may be better to use the pileup and a reference file.
-
-You can also run patchwork.plot with only a reference file.
-See patchwork.createreference for information about the reference file.
-
-A working R installation.
-
-Below are some included heads of example files so you can compare and see that your files are the same format.
-
-
-	/-------------------------------------------/
-		Execution: patchwork.createreference()
-	/------------------------------------------/
-
-This function creates a reference for you using a pool of samples of your selection. Choosing the samples to use for reference creation you should consider these factors:
-	- They should be sequenced using the same technique
-	- They should be from the same organism
-	- They should be non-tumerous
-
-It is recommended that you use atleast 3 bam files to create your own reference.
-
-Start R
-
-Load the patchwork and patchworkData libraries
-
-	> library(patchwork)
-	> library(patchworkData)
-
-Read the amazing documentation for patchwork.createreference()
-	
-	> ?patchwork.createreference
-
-Execute the function, pointing to your desired files.
-
-	> patchwork.createreference("file1","path/to/file2","../file3","~/heres/file4",output="REFOUT")
-
-This will generate REFOUT.Rdata, or whichever prefix you chose, in your working directory. Use this file for the reference argument of patchwork.plot().
-
-
-	/--------------------------------/
-		Execution: patchwork.plot()
-	/-------------------------------/
-
-It is recommended that you run patchwork from a "clean" working directory. In this way you do not run the risk of having files write over eachother. If you do not want to type paths into R you may also want to put the required files in this folder.
-
-Execution may take quite a while depending on the size of your sample! So if possible run it on a dedicated computer.
-
-Start R
-
-Load the patchwork and patchworkData libraries
-
-	> library(patchwork)
-	> library(patchworkData)
-
-Read the excellent documentation for patchwork.plot()
-
-	> ?patchwork.plot
-
-Excerpt from ?patchwork.plot:
-
-	Usage:
-
-	     patchwork.plot(BamFile,Pileup,reference=NULL,normal.bam=NULL,normal.pileup=NULL,Alpha=0.0001,SD=1)
-	     
-	Arguments:
-
-		 BamFile: Aligned, Sorted Bam-file.
-
-		  Pileup: Pileup file generated through samtools -vcf reference.fasta
-		          bamfile > outfile.
-
-		reference: Default is NULL.  Path to a reference file that can be
-		          created using patchwork.createreference().
-
-		normal.bam: Default is NULL.  The matched normal sample of the your
-		          BamFile.
-
-		normal.pileup: Default is NULL.  The pileup of your normal sample.
-
-		   Alpha: Default 0.0001, change if you want to try to get a better
-		          segmentation from patchwork.segment().  From DNAcopy
-		          (?segment): alpha: significance levels for the test to accept
-		          change-points.
-
-		      SD: Default 1, change if you want to try to get a better
-		          segmentation from patchwork.segment().  From DNAcopy
-		          (?segment): undo.SD: the number of SDs between means to keep
-		          a split if undo.splits="sdundo".
-
-
-Perform patchwork.plot() with desired arguments.
-
-	> patchwork.plot(BamFile="patchwork.example.bam",Pileup="patchwork.example.pileup",reference="../HCC1954/datasolexa.RData")
-	Initiating Allele Data Generation
-	Initiating Read Chromosomal Coverage 
-	Reading chr1 
-	Reading chr2 
-	Reading chr3 
-	Reading chr4 
-	Reading chr5 
-	Reading chr6 
-	Reading chr7 
-	Reading chr8 
-	Reading chr9 
-	Reading chrX 
-	Reading chrY 
-	Reading chr10 
-	Reading chr11 
-	Reading chr12 
-	Reading chr13 
-	Reading chr14 
-	Reading chr15 
-	Reading chr16 
-	Reading chr17 
-	Reading chr18 
-	Reading chr19 
-	Reading chr20 
-	Reading chr21 
-	Reading chr22 
-	Read Chromosomal Coverage Complete 
-	Initiating GC Content Normalization 
-	GC Content Normalization Complete 
-	Initiating Smoothing 
-	Smoothing Chromosome: chr1 
-	Smoothing Chromosome: chr2 
-	Smoothing Chromosome: chr3 
-	Smoothing Chromosome: chr4 
-	Smoothing Chromosome: chr5 
-	Smoothing Chromosome: chr6 
-	Smoothing Chromosome: chr7 
-	Smoothing Chromosome: chr8 
-	Smoothing Chromosome: chr9 
-	Smoothing Chromosome: chrX 
-	Smoothing Chromosome: chrY 
-	Smoothing Chromosome: chr10 
-	Smoothing Chromosome: chr11 
-	Smoothing Chromosome: chr12 
-	Smoothing Chromosome: chr13 
-	Smoothing Chromosome: chr14 
-	Smoothing Chromosome: chr15 
-	Smoothing Chromosome: chr16 
-	Smoothing Chromosome: chr17 
-	Smoothing Chromosome: chr18 
-	Smoothing Chromosome: chr19 
-	Smoothing Chromosome: chr20 
-	Smoothing Chromosome: chr21 
-	Smoothing Chromosome: chr22 
-	Smoothing Complete 
-	Initiating Segmentation 
-	Note: If segmentation fails to initiate the probable reason is that you have not installed the R package DNAcopy. See patchwork's README for installation instructions. 
-	Analyzing: chr1.p 
-	Analyzing: chr1.q 
-	Analyzing: chr2.p 
-	Analyzing: chr2.q 
-	Analyzing: chr3.p 
-	Analyzing: chr3.q 
-	Analyzing: chr4.p 
-	Analyzing: chr4.q 
-	Analyzing: chr5.p 
-	Analyzing: chr5.q 
-	Analyzing: chr6.p 
-	Analyzing: chr6.q 
-	Analyzing: chr7.p 
-	Analyzing: chr7.q 
-	Analyzing: chr8.p 
-	Analyzing: chr8.q 
-	Analyzing: chr9.p 
-	Analyzing: chr9.q 
-	Analyzing: chrX.p 
-	Analyzing: chrX.q 
-	Analyzing: chrY.p 
-	Analyzing: chrY.q 
-	Analyzing: chr10.p 
-	Analyzing: chr10.q 
-	Analyzing: chr11.p 
-	Analyzing: chr11.q 
-	Analyzing: chr12.p 
-	Analyzing: chr12.q 
-	Analyzing: chr13.q 
-	Analyzing: chr14.q 
-	Analyzing: chr15.q 
-	Analyzing: chr16.p 
-	Analyzing: chr16.q 
-	Analyzing: chr17.p 
-	Analyzing: chr17.q 
-	Analyzing: chr18.p 
-	Analyzing: chr18.q 
-	Analyzing: chr19.p 
-	Analyzing: chr19.q 
-	Analyzing: chr20.p 
-	Analyzing: chr20.q 
-	Analyzing: chr21.p 
-	Analyzing: chr21.q 
-	Analyzing: chr22.q 
-	Segmentation Complete 
-	Initiating Segment data extraction (Medians and AI) 
-	Segment data extraction Complete 
-	 
-	 
-	Saving information objects needed for patchwork.copynumbers in copynumbers.Rdata 
-	 
-	 
-	Initiating Plotting 
-	Plotting Complete 
-	Shutting down..... 
-	Warning messages:
-
-
-If you did it correctly it should have generated similar output as can be seen above.
-Your working directory should now have the plots generated from the function, 1 overhead plot and 24 chromosomal plots.
-The working directory should also contain the files 
-	- copynumbers.Rdata
-	- data.Rdata
-	- pile.alleles
-	- pile.alleles.Rdata
-	- Segments.Rdata
-	- smoothed.Rdata
-
-These were created for swifter re-runs of the function should something unforseen happen during execution. For example if something goes wrong during a final step it would be a terrible hassle to read all the chromosomes again.
-
-!!!THIS DOES MEAN THAT TO COMPLETELY RE RUN PATCHWORK FROM SCRATCH ALL OF THE ABOVE FILES NEED TO BE DELETED FROM YOUR WORKING DIRECTORY!!!
-
-For some details of the plot functions see their documentation:
-
-	> ?karyotype
-	> ?karyotype_chroms
-
-To interpret the plots here is an excerpt from their documentation:
-
-	/------------------------/
-		karyotype()
-	/-----------------------/
-
-	Description:
-
-	     Plots each,color coded by chromosomal coordinate, chromosome
-	     against a background of the complete genome.
-
-    Details:
-
-	     Vertical axis: Allelic imbalance.
-	     Horizontal axis: Total intensity.
-	     The plot is a overview, for a closer look see the plots generated
-	     by karyotype_chroms().
-	
-	/------------------------/
-		karyotype_chroms()
-	/-----------------------/
-
-	Description:
-
-	     Visualises the calculated data of patchwork.plot() for each
-	     chromosome. 
-
-    Details:
-
-	     *TOP*
-	     Vertical axis: Allelic Imbalance
-	     Horizontal axis: Total Intensity
-	     The chromosome plotted against the complete genome background. The
-	     separation between clusters within the plot are due to the
-	     fluctuating intensity and allelic imbalance and as such display
-	     the varying allele counts and copy numbers. Longer/larger segments
-	     have bigger circles. Darker circles show more content as they are
-	     ontop of eachother.
-
-	     *MIDDLE*
-	     Vertical axis: Total Intensity
-	     Horizontal axis: Chromosomal coordinate
-	     The chromosome in questions total intensity plotted against the
-	     position on the chromosome.
-
-	     *BOTTOM*
-	     Vertical axis: Allelic Imbalance
-	     Horizontal axis: Chromosomal coordinate
-	     The chromosome in questions allelic imbalance plotted against the
-	     position on the chromosome.
-
-
-	/------------------------------------/
-		Execution: patchwork.copynumbers()
-	/-----------------------------------/
-
-The only file you absolutely must have in your working for the next part of execution is copynumbers.Rdata.
-
-Read the outstanding documentation for patchwork.copynumbers()
-
-	> ?patchwork.copynumbers
-
-The cliffnotes are that you will need to look at the plots generated by patchwork.plot() to be able to correctly input the
-arguments for patchwork.copynumbers().
-
-Excerpt from patchwork.copynumbers() documentation:
-
-	Usage:
-
-	     patchwork.copynumbers(cn2,delta,het,hom,maxCn=8,ceiling=1,forcedelta=F)
-	     
-	Arguments:
-
-	    name: Default is "copynumbers_". First part of output name for plots
-	          generated from patchwork.copynumbers().
-
-	    cn2: The approximate position of copy number 2,diploid, on total
-	          intensity axis.
-
-	   	delta: The difference in total intensity between consecutive copy
-	          numbers. For example 1 and 2 or 2 and 3.  If copy number 2
-	          has total intensity ~0.6 and copy number 3 har total
-	          intensity ~0.8 then delta would be 0.2.
-
-	    het: Allelic imbalance ratio of heterozygous copy number 2.
-
-	    hom: Allelic imbalance ratio of Loss-of-heterozygosity copy number
-	          2.
-
-	   	maxCn: Highest copy number to calculate for. Default is 8.
-
-	 	ceiling: Default is 1.
-
-	 	forcedelta: Default is FALSE. If TRUE the delta value will not be
-          subject to small adjustment changes.
-
-
-On our webpage there will also be a picture accompanying this portion pointing to the argument values should the documentation for the function not be sufficient. (http://patchwork.r-forge.r-project.org/)
-
-	>patchwork.copynumbers(name="Example_",cn2=0.8,delta=0.3,het=0.5,hom=0.8)
-
-patchwork.copynumbers() generates plots and should not take a large amount of time to complete. When it is finished you should have 24 chromosome plots, one for each chromosome, and an overview plot with the approximate positions of copy numbers and allele ratios.
-
-For some details of the plot functions see their documentation:
-
-	> ?karyotype_check
-	> ?karyotype_chromsCN
-
-To interpret the plots here is an excerpt from their documentation:
-	
-	/------------------------/
-		karyotype_check()
-	/-----------------------/
-
-	Description:
-
-	     Plots the whole genome coverage vs allelic imbalance with the
-	     approximated areas copynumbers and allele constitution tagged.
-
-	Details:
-
-	     Vertical axis: Allelic Imbalance
-	     Horizontal axis: Relative coverage
-
-	     The naming scheme is Copynumber-m-LesserAlleleDistribution.
-	     For example 2m0 means copynumber = 2, both allels are the same whereas
-	     2m1 means copynumber = 2, 1 allele each.
-
-	     Another example: 4m0, copynumber = 4, All allels are the same.
-	     (Loss of heterozygosity). 4m1, copynumber = 4, 3 alleles are the
-	     same, one is different. 4m2, copynumber = 4, 2 alleles each.
-
-	     The total number of alleles present are always the copynumber.
-
-	/------------------------/
-		karyotype_chromsCN()
-	/-----------------------/
-
-	Description:
-
-	     Visualises the calculated data of patchwork.plot() +
-	     patchwork.copynumbers() for each chromosome. See details for a
-	     walkthrough of the plot.
-
-	Details:
-
-	     *TOP*
-	     Vertical axis: Allelic Imbalance
-	     Horizontal axis: Total Intensity
-	     The chromosome plotted against the complete genome background. The
-	     separation between clusters within the plot are due to the
-	     fluctuating intensity and allelic imbalance and as such display
-	     the varying allele counts and copy numbers. Longer/larger segments
-	     have bigger circles. Darker circles show more content as they are
-	     ontop of eachother.
-
-	     *TOP MIDDLE*
-	     Vertical axis: Copynumber
-	     Horizontal axis: Chromosomal coordinate
-	     Displays the total and minor copynumbers for different segments of
-	     the chromosome in question.
-
-	     *LOWER MIDDLE*
-	     Vertical axis: Total Intensity
-	     Horizontal axis: Chromosomal coordinate
-	     The chromosome in questions total intensity plotted against the
-	     position on the chromosome.
-
-	     *BOTTOM*
-	     Vertical axis: Allelic Imbalance
-	     Horizontal axis: Chromosomal coordinate
-	     The chromosome in questions allelic imbalance plotted against the
-	     position on the chromosome.
-
-
-
-If you have any questions please feel free to contact us and we will help you to the best of our extent!
-
-/------------------------------------/
-Contact information:
-Sebastian.Dilorenzo at medsci.uu.se
-Markus.Mayrhofer at medsci.uu.se
-/------------------------------------/

Copied: pkg/patchwork/inst/README (from rev 121, pkg/patchwork/README)
===================================================================
--- pkg/patchwork/inst/README	                        (rev 0)
+++ pkg/patchwork/inst/README	2012-04-20 09:07:54 UTC (rev 126)
@@ -0,0 +1,493 @@
+Welcome to Patchwork.
+
+patchwork allows you to obtain allele-specific copy number information from BAM files.
+
+To use patchwork on CompleteGenomics data download patchworkCG.
+
+/--------------------------------------/
+http://patchwork.r-forge.r-project.org/
+/--------------------------------------/
+
+It is highly recommended that you visit the webpage for this project as it contains the most recently updated
+information and instructions regarding everything patchwork.
+
+/-------------------/
+Installation Guide:
+/-------------------/
+
+For patchwork to run correctly, or even install, you will need to install DNACopy from Bioconductor.
+
+Start R (as of writing version 2.14.2)
+
+Text with a ">" infront is R executions.
+
+    > source("http://bioconductor.org/biocLite.R")
+    > biocLite("DNAcopy")
+
+After DNAcopy is installed you can install patchwork and patchworkData using these commands:
+
+    > install.packages("patchworkData", repos="http://R-Forge.R-project.org")
+    > install.packages("patchwork", repos="http://R-Forge.R-project.org")
+
+If for some reason that does not work add the 'type="source"' to it, as so:
+
+    > install.packages("patchworkData", repos="http://R-Forge.R-project.org",type="source")
+    > install.packages("patchwork", repos="http://R-Forge.R-project.org",type="source")
+
+The source codes can also be downloaded outside of R at https://r-forge.r-project.org/R/?group_id=1250 
+
+/-------------------/
+	Tutorial:
+/-------------------/
+
+	/-------------------/
+		Requirements:
+	/-------------------/
+
+-A working R installation.
+
+-Your samples ,sorted, BAM and BAI file:
+	To get BAI run "samtools index <yourfile>.bam"
+	To sort a bamfile "samtools sort <yourfile>.bam <sortedfile>.bam"
+
+-A pileup of your sample.
+To do this step you will need a reference human genome fasta file, for example HumanGenome19.fasta.
+
+At the time of writing there should be several places you can find this; The Sanger institute, 1000genomes project etc. You probably already have one as you needed one previously for the alignment of your tumor sequence.
+
+Use SAMtools, version 0.1.18 or older, to produce the pileup:
+	"samtools pileup -vcf <reference.fasta> <yourfile>.bam > <yourpileup>"
+
+The pileup should have this format:
+
+less pileup
+	chr1    10179   c       W       0       0       60      5       ,,tna   ##6!3
+	chr1    10180   t       W       6       6       60      5       ,,,aa   ##369
+	chr1    10377   a       R       0       1       60      1       g       @
+	chr1    11391   t       A       0       3       60      1       a       B
+	chr1    18592   C       Y       0       3       60      1       t       B
+	chr1    23359   c       S       0       2       60      1       g       A
+	chr1    24067   A       R       0       2       60      1       G       A
+	chr1    30315   G       C       3       24      60      2       cC      =;
+	chr1    92200   a       W       0       3       60      1       t       B
+	chr1    96592   T       C       0       3       60      1       C       B
+	chr1    100140  a       M       0       1       60      1       C       @
+	chr1    104697  g       K       0       2       60      1       T       A
+	chr1    127285  A       R       0       3       60      1       g       B
+
+
+-(optional) A matched normal sample to your tumor in BAM 
+-(optional) A pileup of your normal sample BAM
+-(optional) A standard Reference file. (Illumina/Solexa, SOLiD or your own)
+
+What we mean by this (optional) tag is that you do not need to have all these
+files. There is really no point in using all of them. 
+
+If you have a matched normal sample you should make a pileup of this and use those two arguments.
+
+In some cases it may be better to use the pileup and a reference file.
+
+You can also run patchwork.plot with only a reference file.
+See patchwork.createreference for information about the reference file.
+
+	/-------------------------------------------/
+		Execution: patchwork.createreference()
+	/------------------------------------------/
+
+This function creates a reference using a pool of samples of your selection. Choosing the samples to use for reference creation you should consider these factors:
+	- They should be sequenced using the same technique
+	- They should be from the same organism
+	- They should be non-tumerous
+
+It is recommended that you use at least 3 bam files to create your own reference.
+
+Start R
+
+Load the patchwork and patchworkData libraries
+
+	> library(patchwork)
+	> library(patchworkData)
+
+Read the amazing documentation for patchwork.createreference()
+	
+	> ?patchwork.createreference
+
+Execute the function, pointing to your desired files.
+
+	> patchwork.createreference("file1","path/to/file2","../file3","~/heres/file4",output="REFOUT")
+
+This will generate REFOUT.Rdata, or whichever prefix you chose, in your working directory. Use this file for the reference argument of patchwork.plot().
+
+
+	/--------------------------------/
+		Execution: patchwork.plot()
+	/-------------------------------/
+
+It is recommended that you run patchwork from a "clean" working directory. In this way you do not run the risk of having files write over eachother. If you do not want to type paths into R you may also want to put the required files in this folder.
+
+Execution may take quite a while depending on the size of your sample! So if possible run it on a dedicated computer.
+
+
+Start R
+
+Load the patchwork and patchworkData libraries
+
+	> library(patchwork)
+	> library(patchworkData)
+
+Read the excellent documentation for patchwork.plot()
+
+	> ?patchwork.plot
+
+Excerpt from ?patchwork.plot:
+
+	Usage:
+
+	     patchwork.plot(BamFile,Pileup,reference=NULL,normal.bam=NULL,normal.pileup=NULL,Alpha=0.0001,SD=1)
+	     
+	Arguments:
+
+		 BamFile: Aligned, Sorted Bam-file.
+
+		  Pileup: Pileup file generated through samtools -vcf reference.fasta
+		          bamfile > outfile.
+
+		reference: Default is NULL.  Path to a reference file that can be
+		          created using patchwork.createreference().
+
+		normal.bam: Default is NULL.  The matched normal sample of the your
+		          BamFile.
+
+		normal.pileup: Default is NULL.  The pileup of your normal sample.
+
+		   Alpha: Default 0.0001, change if you want to try to get a better
+		          segmentation from patchwork.segment().  From DNAcopy
+		          (?segment): alpha: significance levels for the test to accept
+		          change-points.
+
+		      SD: Default 1, change if you want to try to get a better
+		          segmentation from patchwork.segment().  From DNAcopy
+		          (?segment): undo.SD: the number of SDs between means to keep
+		          a split if undo.splits="sdundo".
+
+
+Perform patchwork.plot() with desired arguments.
+
+	> patchwork.plot(BamFile="patchwork.example.bam",Pileup="patchwork.example.pileup",reference="../HCC1954/datasolexa.RData")
+	Initiating Allele Data Generation
+	Initiating Read Chromosomal Coverage 
+	Reading chr1 
+	Reading chr2 
+	Reading chr3 
+	Reading chr4 
+	Reading chr5 
+	Reading chr6 
+	Reading chr7 
+	Reading chr8 
+	Reading chr9 
+	Reading chrX 
+	Reading chrY 
+	Reading chr10 
+	Reading chr11 
+	Reading chr12 
+	Reading chr13 
+	Reading chr14 
+	Reading chr15 
+	Reading chr16 
+	Reading chr17 
+	Reading chr18 
+	Reading chr19 
+	Reading chr20 
+	Reading chr21 
+	Reading chr22 
+	Read Chromosomal Coverage Complete 
+	Initiating GC Content Normalization 
+	GC Content Normalization Complete 
+	Initiating Smoothing 
+	Smoothing Chromosome: chr1 
+	Smoothing Chromosome: chr2 
+	Smoothing Chromosome: chr3 
+	Smoothing Chromosome: chr4 
+	Smoothing Chromosome: chr5 
+	Smoothing Chromosome: chr6 
+	Smoothing Chromosome: chr7 
+	Smoothing Chromosome: chr8 
+	Smoothing Chromosome: chr9 
+	Smoothing Chromosome: chrX 
+	Smoothing Chromosome: chrY 
+	Smoothing Chromosome: chr10 
+	Smoothing Chromosome: chr11 
+	Smoothing Chromosome: chr12 
+	Smoothing Chromosome: chr13 
+	Smoothing Chromosome: chr14 
+	Smoothing Chromosome: chr15 
+	Smoothing Chromosome: chr16 
+	Smoothing Chromosome: chr17 
+	Smoothing Chromosome: chr18 
+	Smoothing Chromosome: chr19 
+	Smoothing Chromosome: chr20 
+	Smoothing Chromosome: chr21 
+	Smoothing Chromosome: chr22 
+	Smoothing Complete 
+	Initiating Segmentation 
+	Note: If segmentation fails to initiate the probable reason is that you have not installed the R package DNAcopy. See patchwork's README for installation instructions. 
+	Analyzing: chr1.p 
+	Analyzing: chr1.q 
+	Analyzing: chr2.p 
+	Analyzing: chr2.q 
+	Analyzing: chr3.p 
+	Analyzing: chr3.q 
+	Analyzing: chr4.p 
+	Analyzing: chr4.q 
+	Analyzing: chr5.p 
+	Analyzing: chr5.q 
+	Analyzing: chr6.p 
+	Analyzing: chr6.q 
+	Analyzing: chr7.p 
+	Analyzing: chr7.q 
+	Analyzing: chr8.p 
+	Analyzing: chr8.q 
+	Analyzing: chr9.p 
+	Analyzing: chr9.q 
+	Analyzing: chrX.p 
+	Analyzing: chrX.q 
+	Analyzing: chrY.p 
+	Analyzing: chrY.q 
+	Analyzing: chr10.p 
+	Analyzing: chr10.q 
+	Analyzing: chr11.p 
+	Analyzing: chr11.q 
+	Analyzing: chr12.p 
+	Analyzing: chr12.q 
+	Analyzing: chr13.q 
+	Analyzing: chr14.q 
+	Analyzing: chr15.q 
+	Analyzing: chr16.p 
+	Analyzing: chr16.q 
+	Analyzing: chr17.p 
+	Analyzing: chr17.q 
+	Analyzing: chr18.p 
+	Analyzing: chr18.q 
+	Analyzing: chr19.p 
+	Analyzing: chr19.q 
+	Analyzing: chr20.p 
+	Analyzing: chr20.q 
+	Analyzing: chr21.p 
+	Analyzing: chr21.q 
+	Analyzing: chr22.q 
+	Segmentation Complete 
+	Initiating Segment data extraction (Medians and AI) 
+	Segment data extraction Complete 
+	 
+	 
+	Saving information objects needed for patchwork.copynumbers in copynumbers.Rdata 
+	 
+	 
+	Initiating Plotting 
+	Plotting Complete 
+	Shutting down..... 
+	Warning messages:
+
+
+If you did it correctly it should have generated similar output as can be seen above.
+Your working directory should now have the plots generated from the function, 1 overhead plot and 24 chromosomal plots.
+The working directory should also contain the files:
+	- copynumbers.Rdata
+	- data.Rdata
+	- pile.alleles
+	- pile.alleles.Rdata
+	- Segments.Rdata
+	- smoothed.Rdata
+
+These were created for swifter re-runs of the function should something unforseen happen during execution. For example if something goes wrong during a final step it would be a terrible hassle to read all the chromosomes again.
+
+!!!THIS DOES MEAN THAT TO COMPLETELY RE-RUN PATCHWORK FROM SCRATCH IN THE SAME WORKING DIRECTORY ALL OF THE ABOVE FILES NEED TO BE DELETED!!!
+
+For some details of the plot functions see their documentation:
+
+	> ?karyotype
+	> ?karyotype_chroms
+
+To interpret the plots here is an excerpt from their documentation:
+
+	/------------------------/
+		karyotype()
+	/-----------------------/
+
+	Description:
+
+	     Plots each,color coded by chromosomal coordinate, chromosome
+	     against a background of the complete genome.
+
+    Details:
+
+	     Vertical axis: Allelic imbalance.
+	     Horizontal axis: Total intensity.
+	     The plot is a overview, for a closer look see the plots generated
+	     by karyotype_chroms().
+	
+	/------------------------/
+		karyotype_chroms()
+	/-----------------------/
+
+	Description:
+
+	     Visualises the calculated data of patchwork.plot() for each
+	     chromosome. 
+
+    Details:
+
+	     *TOP*
+	     Vertical axis: Allelic Imbalance
+	     Horizontal axis: Total Intensity
+	     The chromosome plotted against the complete genome background. The
+	     separation between clusters within the plot are due to the
+	     fluctuating intensity and allelic imbalance and as such display
+	     the varying allele counts and copy numbers. Longer/larger segments
+	     have bigger circles. Darker circles show more content as they are
+	     ontop of eachother.
+
+	     *MIDDLE*
+	     Vertical axis: Total Intensity
+	     Horizontal axis: Chromosomal coordinate
+	     The chromosome in questions total intensity plotted against the
+	     position on the chromosome.
+
+	     *BOTTOM*
+	     Vertical axis: Allelic Imbalance
+	     Horizontal axis: Chromosomal coordinate
+	     The chromosome in questions allelic imbalance plotted against the
+	     position on the chromosome.
+
+
+	/---------------------------------------/
+		Execution: patchwork.copynumbers()
+	/--------------------------------------/
+
+The only file you absolutely must have in your working for the next part of execution is copynumbers.Rdata.
+
+Read the outstanding documentation for patchwork.copynumbers()
+
+	> ?patchwork.copynumbers
+
+The cliffnotes are that you will need to look at the plots generated by patchwork.plot() to be able to correctly input the
+arguments for patchwork.copynumbers().
+
+Excerpt from patchwork.copynumbers() documentation:
+
+	Usage:
+
+	     patchwork.copynumbers(cn2,delta,het,hom,maxCn=8,ceiling=1,forcedelta=F)
+	     
+	Arguments:
+
+	    name: Default is "copynumbers_". First part of output name for plots
+	          generated from patchwork.copynumbers().
+
+	    cn2: The approximate position of copy number 2,diploid, on total
+	          intensity axis.
+
+	   	delta: The difference in total intensity between consecutive copy
+	          numbers. For example 1 and 2 or 2 and 3.  If copy number 2
+	          has total intensity ~0.6 and copy number 3 har total
+	          intensity ~0.8 then delta would be 0.2.
+
+	    het: Allelic imbalance ratio of heterozygous copy number 2.
+
+	    hom: Allelic imbalance ratio of Loss-of-heterozygosity copy number
+	          2.
+
+	   	maxCn: Highest copy number to calculate for. Default is 8.
+
+	 	ceiling: Default is 1.
+
+	 	forcedelta: Default is FALSE. If TRUE the delta value will not be
+          subject to small adjustment changes.
+
+
[TRUNCATED]

To get the complete diff run:
    svnlook diff /svnroot/patchwork -r 126


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