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planemo upload for repository https://github.com/galaxyproject/tools-iuc/tree/master/tools/transit/ commit 73c6b2baf9dda26c6809a4f36582f7cbdb161ea1
author | iuc |
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date | Mon, 22 Apr 2019 14:43:15 -0400 |
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children | 32da07a53d3b |
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<?xml version="1.0"?> <tool id="transit_hmm" name="HMM" version="@VERSION@+galaxy1"> <description>- determine essentiality of a genome</description> <macros> <import>macros.xml</import> </macros> <expand macro="requirements" /> <command detect_errors="exit_code"><![CDATA[ @LINK_INPUTS@ transit hmm $input_files annotation.dat transit_out.txt @STANDARD_OPTIONS@ -r $replicates $loess ]]> </command> <inputs> <expand macro="standard_inputs"> <expand macro="replicates" /> <param name="loess" argument="-l" type="boolean" truevalue="-l" falsevalue="" label="Perform LOESS Correction" help="Helps remove possible genomic position bias." /> </expand> </inputs> <outputs> <expand macro="outputs"> <data name="genes" from_work_dir="transit_out_genes.txt" format="tabular" label="${tool.name} on ${on_string} Genes" /> </expand> </outputs> <tests> <test> <param name="inputs" ftype="wig" value="transit-in1-rep1.wig,transit-in1-rep2.wig" /> <param name="annotation" ftype="gff3" value="transit-in1.gff3" /> <param name="replicates" value="Replicates" /> <output name="sites" file="hmm-sites1.txt" ftype="tabular" lines_diff="2" /> <output name="genes" file="hmm-genes1.txt" ftype="tabular" /> </test> </tests> <help> <![CDATA[.. class:: infomark **What it does** ------------------- The HMM method can be used to determine the essentiality of the entire genome, as opposed to gene-level analysis of the other methods. It is capable of identifying regions that have unusually high or unusually low read counts (i.e. growth advantage or growth defect regions), in addition to the more common categories of essential and non-essential. Note : Intended only for Himar1 datasets. ------------------- **Inputs** ------------------- - .wig files : Tabulated files containing one column with the TA site coordinate and one column with the read count at this site. - annotation .prot_table : Annotation file generated by the `Convert Gff3 to prot_table for TRANSIT` tool. ------------------- **Parameters** ------------------- | python transit.py hmm <comma-separated .wig files> <annotation .prot_table or GFF3> <output file> | Optional Arguments: | -r <string> := How to handle replicates. Sum, Mean. Default: -r Mean | -l := Perform LOESS Correction; Helps remove possible genomic position bias. Default: Off. | -iN <float> := Ignore TAs occuring at given fraction of the N terminus. Default: -iN 0.0 | -iC <float> := Ignore TAs occuring at given fraction of the C terminus. Default: -iC 0.0 The HMM method automatically estimates the necessary statistical parameters from the datasets. You can change how the method handles replicate datasets: - Replicates: Determines how the HMM deals with replicate datasets by either averaging the read-counts or summing read counts across datasets. For regular datasets (i.e. mean-read count > 100) the recommended setting is to average read-counts together. For sparse datasets, it summing read-counts may produce more accurate results. ----------- **Outputs** ----------- The HMM method outputs two files. The first file provides the most likely assignment of states for all the TA sites in the genome. Sites can belong to one of the following states: “E” (Essential), “GD” (Growth-Defect), “NE” (Non-Essential), or “GA” (Growth-Advantage). In addition, the output includes the probability of the particular site belonging to the given state. The columns of this file are defined as follows: ============================================= ======================================================================================================================== **Column** **Column Definition** --------------------------------------------- ------------------------------------------------------------------------------------------------------------------------ 1 Coordinate of TA site 2 Observed Read Counts 3 Probability for ES state 4 Probability for GD state 5 Probability for NE state 6 Probability for GA state 7 State Classification (ES = Essential, GD = Growth Defect, NE = Non-Essential, GA = Growth-Defect) 8 Gene(s) that share(s) the TA site. ============================================= ======================================================================================================================== The second file provides a gene-level classification for all the genes in the genome. Genes are classified as “E” (Essential), “GD” (Growth-Defect), “NE” (Non-Essential), or “GA” (Growth-Advantage) depending on the number of sites within the gene that belong to those states. ============================================= ======================================================================================================================== **Column Header** **Column Definition** --------------------------------------------- ------------------------------------------------------------------------------------------------------------------------ Orf Gene ID Name Gene Name Desc Gene Description N Number of TA sites n0 Number of sites labeled ES (Essential) n1 Number of sites labeled GD (Growth-Defect) n2 Number of sites labeled NE (Non-Essential) n3 Number of sites labeled GA (Growth-Advantage) Avg. Insertions Mean insertion rate within the gene Avg. Reads Mean read count within the gene State Call State Classification (ES = Essential, GD = Growth Defect, NE = Non-Essential, GA = Growth-Defect) ============================================= ======================================================================================================================== Note: Libraries that are too sparse (e.g. < 30%) or which contain very low read-counts may be problematic for the HMM method, causing it to label too many Growth-Defect genes ]]></help> <expand macro="citations" /> </tool>