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wolsop.sh
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#!/bin/bash
#######################################
#
# Standard workflow for WoL + Woltka
#
#######################################
# Author: Qiyun Zhu
# License: BSD-3-Clause
# Version: 0.0.1-dev
# Email: qiyunzhu@gmail.com
# Last updated: 2021-04-22
# Usage: Customize the "Parameters" section, then run this script.
##############
# Parameters #
##############
# WoL data release directory
# available for download at: ftp://ftp.microbio.me/pub/wol-20April2021
# see WoL doc for details
db=
# input alignment file or directory
# can be a directory of multiple files, or a multiplexed file, or a mapping
# of sample IDs to files; supports SAM, PAF, BLAST and plain mappings,
# supports regular, gz, bz2 and xz files
# see Woltka doc for details
input=
# input file extension (optional)
ext=
# output format (biom or tsv)
fmt=biom
# taxonomy tree format (taxdump or lineage)
taxtree=taxdump
# taxonomic ranks
taxranks=phylum,class,order,family,genus,species
# GO classification (yes/no)
go=yes
# MetaCyc classification (yes/no)
metacyc=yes
# KEGG classification (specify KEGG directory path)
# this directory is not part of WoL data release, see Woltka doc for
# instruction
kegg=
#######
# SOP #
#######
[ "$fmt" == biom ] && altfmt= || altfmt="--to-tsv"
[ -z "$ext" ] && filext= || filext="--filext $ext"
# taxonomic classification (NCBI)
if [ "$taxtree" == taxdump ]; then
woltka classify \
--input $input \
--map $db/taxonomy/taxid.map \
--nodes $db/taxonomy/nodes.dmp \
--names $db/taxonomy/names.dmp \
--rank none,free,$taxranks \
$filext \
$altfmt \
--output .
else
woltka classify \
--input $input \
--lineage $db/taxonomy/lineages.txt \
--rank none,free,$taxranks \
$filext \
$altfmt \
--output .
fi
mv none.$fmt ogu.$fmt
# functional classification (UniRef)
woltka classify \
--input $input \
--coords $db/proteins/coords.txt.xz \
--map $db/function/uniref/uniref.map.xz \
--names $db/function/uniref/uniref.name.xz \
--rank none,uniref \
$filext \
$altfmt \
--output .
mv none.$fmt orf.$fmt
######
# GO #
######
if [ "$go" == yes ]; then
go=$db/function/go
mkdir -p go
cd go
# by domain
for domain in all component function process; do
woltka collapse -m $go/$domain.map.xz -n $go/name.txt \
-i ../uniref.$fmt -o $domain.$fmt
# GO slim (generic)
woltka collapse -m $go/generic/$domain.map -n $go/name.txt \
-i $domain.$fmt -o $domain.generic.$fmt
done
cd ..
fi
###########
# MetaCyc #
###########
if [ "$metacyc" == yes ]; then
mc=$db/function/metacyc
mkdir -p metacyc
cd metacyc
# ORF to protein
woltka collapse -m $mc/protein.map.xz -n $mc/protein_name.txt \
-i ../orf.$fmt -o protein.$fmt
# protein to enzrxn (enzymatic reaction)
woltka collapse -m $mc/protein-to-enzrxn.txt -n $mc/enzrxn_name.txt \
-i protein.$fmt -o enzrxn.$fmt
# enzrxn to reaction
woltka collapse -m $mc/enzrxn-to-reaction.txt -n $mc/reaction_name.txt \
-i enzrxn.$fmt -o reaction.$fmt
# reaction to pathway
woltka collapse -m $mc/reaction-to-pathway.txt -n $mc/pathway_name.txt \
-i reaction.$fmt -o pathway.$fmt
# pathway to super pathway
woltka collapse -m $mc/pathway-to-super_pathway.txt -n $mc/pathway_name.txt \
-i pathway.$fmt -o super_pathway.$fmt
# super pathway (or pathway) to pathway type
woltka collapse -m $mc/pathway_type.txt -n $mc/all_class_name.txt \
-i super_pathway.$fmt -o pathway_type.$fmt
# protein to gene
woltka collapse -m $mc/protein-to-gene.txt -n $mc/gene_name.txt \
-i protein.$fmt -o gene.$fmt
# protein to go
woltka collapse -m $mc/protein-to-go.txt \
-i protein.$fmt -o go.$fmt
# enzrxn to regulation to regulator
woltka collapse -m $mc/enzrxn-to-regulation.txt \
-i enzrxn.$fmt -o regulation.$fmt
woltka collapse -m $mc/regulation-to-regulator.txt -n $mc/compound_name.txt \
-i regulation.$fmt -o regulator.$fmt
# reaction to compound (left and right)
for side in left right; do
woltka collapse -m $mc/reaction-to-${side}_compound.txt -n $mc/compound_name.txt \
-i reaction.$fmt -o ${side}_compound.$fmt
# compound type
woltka collapse -m $mc/compound_type.txt -n $mc/all_class_name.txt \
-i ${side}_compound.$fmt -o ${side}_compound_type.$fmt
done
# compound and type (both sides)
woltka merge -i left_compound.$fmt -i right_compound.$fmt -o compound.$fmt
woltka merge -i left_compound_type.$fmt -i right_compound_type.$fmt -o compound_type.$fmt
# reaction to EC
woltka collapse -m $mc/reaction-to-ec.txt \
-i reaction.$fmt -o ec.$fmt
# pathway coverage (by reaction)
woltka coverage -m $mc/pathway-to-reaction_list.txt \
-i reaction.$fmt -o pathway_coverage.$fmt
cd ..
fi
########
# KEGG #
########
if [ -d "$kegg" ]; then
ke=$kegg
mkdir -p kegg
cd kegg
# entrance
# UniRef to KO
woltka collapse -m $db/function/kegg/ko.map.xz -n $db/function/kegg/ko.name \
-i ../uniref.$fmt -o ko.$fmt
# main cascade
# KO to reaction
woltka collapse -m $ke/ko-to-reaction.txt -n $ke/reaction_name.txt \
-i ko.$fmt -o reaction.$fmt
# reaction to module
woltka collapse -m $ke/reaction-to-module.txt -n $ke/module_name.txt \
-i reaction.$fmt -o module.$fmt
# module to pathway
woltka collapse -m $ke/module-to-pathway.txt -n $ke/pathway_name.txt \
-i module.$fmt -o pathway.$fmt
# classes
# reaction to rclass
woltka collapse -m $ke/reaction-to-rclass.txt -n $ke/rclass_name.txt \
-i reaction.$fmt -o rclass.$fmt
# module class
woltka collapse -m $ke/module-to-class.txt \
-i module.$fmt -o module_class.$fmt
# pathway class
woltka collapse -m $ke/pathway-to-class.txt \
-i pathway.$fmt -o pathway_class.$fmt
# compounds
for side in left right; do
woltka collapse -m $ke/reaction-to-${side}_compound.txt -n $ke/compound_name.txt \
-i reaction.$fmt -o ${side}_compound.$fmt
done
woltka merge -i left_compound.$fmt -i right_compound.$fmt -o compound.$fmt
# extended
# KO to EC
woltka collapse -m $ke/ko-to-ec.txt \
-i ko.$fmt -o ec.$fmt
# KO to GO
woltka collapse -m $ke/ko-to-go.txt \
-i ko.$fmt -o go.$fmt
# KO to COG
woltka collapse -m $ke/ko-to-cog.txt \
-i ko.$fmt -o cog.$fmt
# KO to disease
woltka collapse -m $ke/ko-to-disease.txt -n $ke/disease_name.txt \
-i ko.$fmt -o disease.$fmt
# coverage
# module coverage by reaction
woltka coverage -m $ke/module-to-reaction.txt \
-i reaction.$fmt -o module_coverage.$fmt
# pathway coverage by module
woltka coverage -m $ke/pathway-to-module.txt \
-i module.$fmt -o pathway_coverage.$fmt
cd ..
fi