Binding and Expression Target Analysis (BETA) is a software package that integrates ChIP-seq of transcription factors or chromatin regulators with differential gene expression data to infer direct target genes.
This is a just snapshot of the BETA repository! To download the latest version of BETA, please go to http://cistrome.org/BETA/.
Wang, S., Sun, H., Ma, J., Zang, C., Wang, C., Wang, J., ... & Liu, X. S. (2013). Target analysis by integration of transcriptome and ChIP-seq data with BETA. Nature protocols, 8(12), 2502-2515.
Go to http://cistrome.org/ap to run on our web server at Cistrome
Python 2.6 or above is recommended.
$ python setup.py install
$ BETA --help BETA --- Binding Expression Target Analysis BETA [options]* -p <peak> -e <expression> -k <type> -b <boundary> -g <genome>
-p PEAKFILE, --peakfile=PEAKFILE Input the bed format peak file of the factor -e EXPREFILE, --diff_expr=EXPREFILE Input the differential expression file get from limma for MicroArray data and cuffdiff for RNAseq data -k KIND, --kind=KIND The kind of your expression file,this is required, it can be M or R. M for Microarray. R for RNAseq -b BOUNDARYFILE, --bound=BOUNDARYFILE Input the conserved CTCF binding sites boundary bed format file -g GENOME, --genome=GENOME Select a genome file (sqlite3 file) to search refGenes.
--version Show program's version number and exit -h, --help Show this help message and exit. --pn=PEAKNUMBER The number of peaks you want to consider, DEFAULT=10000 -n NAME, --name=NAME This argument is used to name the result file.If not set, the peakfile name will be used instead -d DISTANCE, --distance=DISTANCE Set a number which unit is 'base'. It will get peaks within this distance from gene TSS. default:100000(100kb) --df=DIFF_FDR Input a number 0~1 as a threshold to pick out the most significant differential expressed genes by FDR, DEFAULT = 1, that is select all the genes --da=DIFF_AMOUNT Input a number between 0-1, so that the script will only output a percentage of most significant differential expressed genes,input a number bigger than 1, for example, 2000. so that the script will only output top 2000 genes DEFAULT = 0.5, that is select top 25 percentage,NOTE:If you want to use diff_fdr, please set this parameter to 1, otherwose it will get the intersection of these two parameters -c CUTOFF, --cutoff=CUTOFF Input a number between 0~1 as a threshold to select the closer target gene list(up regulate or down regulate or both) with the p value was called by one side ks-test, DEFAULT = 0.001 --pt=PERMUTETIMES Permutaton times,give a resonable value to get an exact FDR.Gene number and permute times decide the time it will take. DEFAULT=500
BETA -p 2723_peaks.bed -e gene_exp.diff -b hg19_CTCF_bound.bed -k R -g hg19.refseq
Peak
: BED formatchroms
start
end
name
score
[strand]
If your bed don't have the name and score column, please fake one.
Expression by Microarray
: Result of LimmaID
Refseq
logFC
AveExpre
Tscore
Pvalue
adj.P.Value
B
Expression by RNAseq
: Result of CufflinksTest_id
gene_id
gene
locus
sample_1
sample_2
status
value_1
value_2
Log2(foldchange)
test_stat
p_value
q_value
significant
CTCF conserved boundary
: BED formatchroms
start
end
name
score
[strand]
The conserve CTCF binding sites of all the cell lines.
Genome reference
; Downloaded from UCSCrefseqID
chroms
strand
txstart
txend
genesymbol
.We use that as a reference to get the gene information.
score.pdf
: A CDF figure to test the TF's funtion, Up pr Down regulation.score.r
: The R script to draw thescore.pdf
figureuptarget.txt
: The uptarget genes, 4 column, Refseq, Gene Symbol, Rank Product, FDRdowntarget.txt
: The downregulate genes, the same format to uptarget.
NOTE: Up or Down target file depends on the test result in the PDF file, it will be not produced enless it passed the threshold you seted via -c --cutoff