# HG changeset patch
# User in_silico
# Date 1528818840 14400
# Node ID 953e716d7837d1ac72093ab6760e662f3437c3bd
# Parent 0ff2d655068c0baaa5ed4e558e10d7510bfeb46f
Uploaded
diff -r 0ff2d655068c -r 953e716d7837 cravat_submit/cravat_submit.py
--- a/cravat_submit/cravat_submit.py Tue Jun 12 11:05:00 2018 -0400
+++ b/cravat_submit/cravat_submit.py Tue Jun 12 11:54:00 2018 -0400
@@ -4,14 +4,18 @@
import urllib
import sys
import csv
-import pdb
input_filename = sys.argv[1]
input_select_bar = sys.argv[2]
output_filename = sys.argv[3]
-#in_file = open('input_call.txt', "r")
-#out_file = open('output_call.txt', "w")
+# HACK: Input args corrections.
+if input_select_bar == "None":
+ # The server represents an analyses of None as ""; however, submitting a blank string on command line throws off arg position
+ input_select_bar = ""
+ # The server represents the "Vest and Chasm" analyses as "VEST;CHASM; however, galaxy converts the semi-colon to an 'X'. Switch it back.
+elif input_select_bar == "VESTXCHASM":
+ input_select_bar = "VEST;CHASM"
write_header = True
@@ -30,7 +34,6 @@
status = json.loads(check.text)['status']
resultfileurl = json.loads(check.text)['resultfileurl']
#out_file.write(str(status) + ', ')
- pdb.set_trace()
if status == 'Success':
#out_file.write('\t' + resultfileurl)
break
@@ -97,40 +100,4 @@
cells.append(value)
print cells
- tsvout.writerow(cells)
-
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-#a = 'col1\tcol2\tcol3'
-#header_list = a.split('\t')
-
-#loop through the two results, when you first hit header you print out the headers in tabular form
-#Print out each header only once
-#Combine both headers into one output file
-#loop through the rest of the data and assign each value to its assigned header
-#combine this all into one output file
-
-
-
-
-
+ tsvout.writerow(cells)
\ No newline at end of file
diff -r 0ff2d655068c -r 953e716d7837 cravat_submit/cravat_submit.xml
--- a/cravat_submit/cravat_submit.xml Tue Jun 12 11:05:00 2018 -0400
+++ b/cravat_submit/cravat_submit.xml Tue Jun 12 11:54:00 2018 -0400
@@ -7,7 +7,7 @@
-
+
diff -r 0ff2d655068c -r 953e716d7837 cravat_submit/vcf_converter.py
--- /dev/null Thu Jan 01 00:00:00 1970 +0000
+++ b/cravat_submit/vcf_converter.py Tue Jun 12 11:54:00 2018 -0400
@@ -0,0 +1,243 @@
+"""
+A module originally obtained from the cravat package. Modified to use in the vcf
+converter galaxy tool.
+
+
+Register of changes made (Chris Jacoby):
+ 1) Changed imports as galaxy tool won't have access to complete cravat python package
+ 2) Defined BadFormatError in BaseConverted file, as I didn't have the BadFormatError module
+"""
+
+from base_converter import BaseConverter, BadFormatError
+import re
+
+class CravatConverter(BaseConverter):
+
+ def __init__(self):
+ self.format_name = 'vcf'
+ self.samples = []
+ self.var_counter = 0
+ self.addl_cols = [{'name':'phred',
+ 'title':'Phred',
+ 'type':'string'},
+ {'name':'filter',
+ 'title':'VCF filter',
+ 'type':'string'},
+ {'name':'zygosity',
+ 'title':'Zygosity',
+ 'type':'string'},
+ {'name':'alt_reads',
+ 'title':'Alternate reads',
+ 'type':'int'},
+ {'name':'tot_reads',
+ 'title':'Total reads',
+ 'type':'int'},
+ {'name':'af',
+ 'title':'Variant allele frequency',
+ 'type':'float'}]
+
+ def check_format(self, f):
+ return f.readline().startswith('##fileformat=VCF')
+
+ def setup(self, f):
+
+ vcf_line_no = 0
+ for line in f:
+ vcf_line_no += 1
+ if len(line) < 6:
+ continue
+ if line[:6] == '#CHROM':
+ toks = re.split('\s+', line.rstrip())
+ if len(toks) > 8:
+ self.samples = toks[9:]
+ break
+
+ def convert_line(self, l):
+ if l.startswith('#'): return None
+ self.var_counter += 1
+ toks = l.strip('\r\n').split('\t')
+ all_wdicts = []
+ if len(toks) < 8:
+ raise BadFormatError('Wrong VCF format')
+ [chrom, pos, tag, ref, alts, qual, filter, info] = toks[:8]
+ if tag == '':
+ raise BadFormatError('ID column is blank')
+ elif tag == '.':
+ tag = 'VAR' + str(self.var_counter)
+ if chrom[:3] != 'chr':
+ chrom = 'chr' + chrom
+ alts = alts.split(',')
+ len_alts = len(alts)
+ if len(toks) == 8:
+ for altno in range(len_alts):
+ wdict = None
+ alt = alts[altno]
+ newpos, newref, newalt = self.extract_vcf_variant('+', pos, ref, alt)
+ wdict = {'tags':tag,
+ 'chrom':chrom,
+ 'pos':newpos,
+ 'ref_base':newref,
+ 'alt_base':newalt,
+ 'sample_id':'no_sample',
+ 'phred': qual,
+ 'filter': filter}
+ all_wdicts.append(wdict)
+ elif len(toks) > 8:
+ sample_datas = toks[9:]
+ genotype_fields = {}
+ genotype_field_no = 0
+ for genotype_field in toks[8].split(':'):
+ genotype_fields[genotype_field] = genotype_field_no
+ genotype_field_no += 1
+ if not ('GT' in genotype_fields):
+ raise BadFormatError('No GT Field')
+ gt_field_no = genotype_fields['GT']
+ for sample_no in range(len(sample_datas)):
+ sample = self.samples[sample_no]
+ sample_data = sample_datas[sample_no].split(':')
+ gts = {}
+ for gt in sample_data[gt_field_no].replace('/', '|').split('|'):
+ if gt == '.':
+ continue
+ else:
+ gts[int(gt)] = True
+ for gt in sorted(gts.keys()):
+ wdict = None
+ if gt == 0:
+ continue
+ else:
+ alt = alts[gt - 1]
+ newpos, newref, newalt = self.extract_vcf_variant('+', pos, ref, alt)
+ zyg = self.homo_hetro(sample_data[gt_field_no])
+ depth, alt_reads, af = self.extract_read_info(sample_data, gt, gts, genotype_fields)
+
+ wdict = {'tags':tag,
+ 'chrom':chrom,
+ 'pos':newpos,
+ 'ref_base':newref,
+ 'alt_base':newalt,
+ 'sample_id':sample,
+ 'phred': qual,
+ 'filter': filter,
+ 'zygosity': zyg,
+ 'tot_reads': depth,
+ 'alt_reads': alt_reads,
+ 'af': af,
+ }
+ all_wdicts.append(wdict)
+ return all_wdicts
+
+ #The vcf genotype string has a call for each allele separated by '\' or '/'
+ #If the call is the same for all allels, return 'hom' otherwise 'het'
+ def homo_hetro(self, gt_str):
+ if '.' in gt_str:
+ return '';
+
+ gts = gt_str.strip().replace('/', '|').split('|')
+ for gt in gts:
+ if gt != gts[0]:
+ return 'het'
+ return 'hom'
+
+ #Extract read depth, allele count, and allele frequency from optional VCR information
+ def extract_read_info (self, sample_data, gt, gts, genotype_fields):
+ depth = ''
+ alt_reads = ''
+ ref_reads = ''
+ af = ''
+
+ #AD contains 2 values usually ref count and alt count unless there are
+ #multiple alts then it will have alt 1 then alt 2.
+ if 'AD' in genotype_fields and genotype_fields['AD'] <= len(sample_data):
+ if 0 in gts.keys():
+ #if part of the genotype is reference, then AD will have #ref reads, #alt reads
+ ref_reads = sample_data[genotype_fields['AD']].split(',')[0]
+ alt_reads = sample_data[genotype_fields['AD']].split(',')[1]
+ elif gt == max(gts.keys()):
+ #if geontype has multiple alt bases, then AD will have #alt1 reads, #alt2 reads
+ alt_reads = sample_data[genotype_fields['AD']].split(',')[1]
+ else:
+ alt_reads = sample_data[genotype_fields['AD']].split(',')[0]
+
+ if 'DP' in genotype_fields and genotype_fields['DP'] <= len(sample_data):
+ depth = sample_data[genotype_fields['DP']]
+ elif alt_reads != '' and ref_reads != '':
+ #if DP is not present but we have alt and ref reads count, dp = ref+alt
+ depth = int(alt_reads) + int(ref_reads)
+
+ if 'AF' in genotype_fields and genotype_fields['AF'] <= len(sample_data):
+ af = float(sample_data[genotype_fields['AF']] )
+ elif depth != '' and alt_reads != '':
+ #if AF not specified, calc it from alt and ref reads
+ af = float(alt_reads) / float(depth)
+
+ return depth, alt_reads, af
+
+ def extract_vcf_variant (self, strand, pos, ref, alt):
+
+ reflen = len(ref)
+ altlen = len(alt)
+
+ # Returns without change if same single nucleotide for ref and alt.
+ if reflen == 1 and altlen == 1 and ref == alt:
+ return pos, ref, alt
+
+ # Trimming from the start and then the end of the sequence
+ # where the sequences overlap with the same nucleotides
+ new_ref2, new_alt2, new_pos = \
+ self.trimming_vcf_input(ref, alt, pos, strand)
+
+ if new_ref2 == '':
+ new_ref2 = '-'
+ if new_alt2 == '':
+ new_alt2 = '-'
+
+ return new_pos, new_ref2, new_alt2
+
+ # This function looks at the ref and alt sequences and removes
+ # where the overlapping sequences contain the same nucleotide.
+ # This trims from the end first but does not remove the first nucleotide
+ # because based on the format of VCF input the
+ # first nucleotide of the ref and alt sequence occur
+ # at the position specified.
+ # End removed first, not the first nucleotide
+ # Front removed and position changed
+ def trimming_vcf_input(self, ref, alt, pos, strand):
+ pos = int(pos)
+ reflen = len(ref)
+ altlen = len(alt)
+ minlen = min(reflen, altlen)
+ new_ref = ref
+ new_alt = alt
+ new_pos = pos
+ # Trims from the end. Except don't remove the first nucleotide.
+ # 1:6530968 CTCA -> GTCTCA becomes C -> GTC.
+ for nt_pos in range(0, minlen - 1):
+ if ref[reflen - nt_pos - 1] == alt[altlen - nt_pos - 1]:
+ new_ref = ref[:reflen - nt_pos - 1]
+ new_alt = alt[:altlen - nt_pos - 1]
+ else:
+ break
+ new_ref_len = len(new_ref)
+ new_alt_len = len(new_alt)
+ minlen = min(new_ref_len, new_alt_len)
+ new_ref2 = new_ref
+ new_alt2 = new_alt
+ # Trims from the start. 1:6530968 G -> GT becomes 1:6530969 - -> T.
+ for nt_pos in range(0, minlen):
+ if new_ref[nt_pos] == new_alt[nt_pos]:
+ if strand == '+':
+ new_pos += 1
+ elif strand == '-':
+ new_pos -= 1
+ new_ref2 = new_ref[nt_pos + 1:]
+ new_alt2 = new_alt[nt_pos + 1:]
+ else:
+ new_ref2 = new_ref[nt_pos:]
+ new_alt2 = new_alt[nt_pos:]
+ break
+ return new_ref2, new_alt2, new_pos
+
+
+if __name__ == "__main__":
+ c = CravatConverter()
\ No newline at end of file