def matrix_merge(matrices, reducer=merge_require_equal):
""" Merge several matrices.
Matrices should have the same row names.
Where multiple matrices have the same column, the values are merged using the reducer function.
"""
columns = collections.OrderedDict()
row_names = matrices[0].keys()
for i, matrix in enumerate(matrices):
assert row_names == matrix.keys(
), 'Row names don\'t match in matrix merge'
for column in matrix.value_type().keys():
if column not in columns:
columns[column] = []
columns[column].append(i)
return io.named_matrix_type(row_names, columns.keys())([[
reduce(reducer, [matrices[i][name][column] for i in columns[column]])
for column in columns
] for name in row_names])
def matrix_merge(matrices, reducer=merge_require_equal):
""" Merge several matrices.
Matrices should have the same row names.
Where multiple matrices have the same column, the values are merged using the reducer function.
"""
columns = collections.OrderedDict()
row_names = matrices[0].keys()
for i, matrix in enumerate(matrices):
assert row_names == matrix.keys(), 'Row names don\'t match in matrix merge'
for column in matrix.value_type().keys():
if column not in columns:
columns[column] = [ ]
columns[column].append( i )
return io.named_matrix_type(row_names, columns.keys())([
[ reduce(reducer, [ matrices[i][name][column] for i in columns[column] ])
for column in columns
]
for name in row_names
])
def run(self):
#assert not self.utr_only or self.utrs, '--utrs-only yes but no --utrs given'
# Reference genome
#chromosome_lengths = reference_directory.Reference(self.reference, must_exist=True).get_lengths()
chromosomes = collections.OrderedDict(io.read_sequences(self.reference))
def get_interpeak_seq(peaks):
start = min(item.transcription_stop for item in peaks)
end = max(item.transcription_stop for item in peaks)
if end-start > self.max_seq: return ''
if peaks[0].strand >= 0:
return chromosomes[peaks[0].seqid][start:end]
else:
return bio.reverse_complement(chromosomes[peaks[0].seqid][start:end])
def get_prepeak_seq(gene,peaks):
if gene.strand >= 0:
start = gene.utr_pos
end = min(item.transcription_stop for item in peaks)
if end-start > self.max_seq: return ''
return chromosomes[gene.seqid][start:end]
else:
start = max(item.transcription_stop for item in peaks)
end = gene.utr_pos
if end-start > self.max_seq: return ''
return bio.reverse_complement(chromosomes[gene.seqid][start:end])
# Normalization files
if self.norm_file:
norm_file = self.norm_file
else:
nesoni.Norm_from_counts(self.prefix+'-norm', self.counts).run()
norm_file = self.prefix+'-norm.csv'
norms = io.read_grouped_table(norm_file, [('All',str)])['All']
pair_norm_names = [ ]
pair_norms = [ ]
for i in xrange(len(norms)):
pair_norm_names.append(norms.keys()[i]+'-peak1')
pair_norms.append(norms.values()[i])
for i in xrange(len(norms)):
pair_norm_names.append(norms.keys()[i]+'-peak2')
pair_norms.append(norms.values()[i])
io.write_grouped_csv(
self.prefix+'-pairs-norm.csv',
[('All',io.named_list_type(pair_norm_names)(pair_norms))],
comments=['#Normalization'],
)
# Read data
annotations = list(annotation.read_annotations(self.parents))
if self.utrs:
utrs = list(annotation.read_annotations(self.utrs))
else:
utrs = [ ]
children = list(annotation.read_annotations(self.children))
count_table = io.read_grouped_table(self.counts, [
('Count',int),
('Tail_count',int),
('Tail',_float_or_none),
('Proportion',_float_or_none),
('Annotation',str)
])
counts = count_table['Count']
tail_counts = count_table['Tail_count']
proportions = count_table['Proportion']
tails = count_table['Tail']
samples = counts.value_type().keys()
sample_tags = { }
for line in count_table.comments:
if line.startswith('#sampleTags='):
parts = line[len('#sampleTags='):].split(',')
assert parts[0] not in sample_tags
sample_tags[parts[0]] = parts
for item in children:
item.weight = sum( counts[item.get_id()][name] * float(norms[name]['Normalizing.multiplier']) for name in samples )
parents = [ ]
id_to_parent = { }
for item in annotations:
if item.type != self.parent_type: continue
assert item.get_id() not in id_to_parent, 'Duplicate id in parent file: '+item.get_id()
parents.append(item)
id_to_parent[item.get_id()] = item
item.children = [ ]
#item.cds = [ ]
# Default utr
if item.strand >= 0:
item.utr_pos = item.end
else:
item.utr_pos = item.start
if 'three_prime_UTR_start' in item.attr:
if item.strand >= 0:
item.utr_pos = int(item.attr['three_prime_UTR_start'])-1
else:
item.utr_pos = int(item.attr['three_prime_UTR_start'])
for item in utrs:
assert item.attr['Parent'] in id_to_parent, 'Unknown gene '+item.attr['Parent']
id_to_parent[item.attr['Parent']].utr_pos = (item.start if item.strand >= 0 else item.end)
for item in children:
item.transcription_stop = item.end if item.strand >= 0 else item.start #End of transcription, 0-based, ie between-positions based
if 'Parent' in item.attr:
for item_parent in item.attr['Parent'].split(','):
parent = id_to_parent[item_parent]
parent.children.append(item)
for item in parents:
item.children.sort(key=_annotation_sorter)
relevant = list(item.children)
if self.utr_only:
#if item.strand <= 0:
# relative_utr_start = item.end - int(item.attr['three_prime_UTR_start'])
#else:
# relative_utr_start = int(item.attr['three_prime_UTR_start'])-1 - item.start
#
#def relative_start(peak):
# return item.end-peak.end if item.strand < 0 else peak.start-item.start
#relevant = [ peak for peak in relevant if relative_start(peak) >= relative_utr_start ]
relevant = [
peak for peak in relevant
if (peak.end >= item.utr_pos if item.strand >= 0 else peak.start <= item.utr_pos)
]
if self.top:
relevant.sort(key=lambda peak:peak.weight, reverse=True)
relevant = relevant[:self.top]
relevant.sort(key=_annotation_sorter)
item.relevant_children = relevant
# JSON output
j_data = { }
j_genes = j_data['genes'] = { }
j_genes['__comment__'] = 'start is 0-based'
j_genes['name'] = [ ]
j_genes['chromosome'] = [ ]
j_genes['strand'] = [ ]
j_genes['start'] = [ ]
j_genes['utr'] = [ ]
j_genes['end'] = [ ]
j_genes['gene'] = [ ]
j_genes['product'] = [ ]
j_genes['peaks'] = [ ]
j_genes['relevant_peaks'] = [ ]
#j_genes['cds'] = [ ]
#j_genes['cds_start'] = [ ]
#j_genes['cds_end'] = [ ]
for item in parents:
j_genes['name'].append( item.get_id() )
j_genes['chromosome'].append( item.seqid )
j_genes['strand'].append( item.strand )
j_genes['start'].append( item.start )
j_genes['utr'].append( item.utr_pos )
j_genes['end'].append( item.end )
j_genes['gene'].append( item.attr.get('Name',item.attr.get('gene','')) )
j_genes['product'].append( item.attr.get('Product',item.attr.get('product','')) )
j_genes['peaks'].append( [ item2.get_id() for item2 in item.children ] )
j_genes['relevant_peaks'].append( [ item2.get_id() for item2 in item.relevant_children ] )
#j_genes['cds'].append( item.cds )
#j_genes['cds_start'].append( item.cds_start )
#j_genes['cds_end'].append( item.cds_end )
j_peaks = j_data['peaks'] = { }
j_peaks['__comment__'] = 'start is 0-based'
j_peaks['name'] = [ ]
j_peaks['chromosome'] = [ ]
j_peaks['strand'] = [ ]
j_peaks['start'] = [ ]
j_peaks['end'] = [ ]
j_peaks['parents'] = [ ]
j_peaks['counts'] = [ ]
j_peaks['tail_lengths'] = [ ]
j_peaks['proportion_tailed'] = [ ]
for item in children:
j_peaks['name'].append( item.get_id() )
j_peaks['chromosome'].append( item.seqid )
j_peaks['strand'].append( item.strand )
j_peaks['start'].append( item.start )
j_peaks['end'].append( item.end )
j_peaks['parents'].append( item.attr['Parent'].split(',') if 'Parent' in item.attr else [ ])
j_peaks['counts'].append( counts[item.get_id()].values() )
j_peaks['tail_lengths'].append( count_table['Tail'][item.get_id()].values() )
j_peaks['proportion_tailed'].append( count_table['Proportion'][item.get_id()].values() )
j_samples = j_data['samples'] = { }
j_samples['name'] = [ ]
j_samples['tags'] = [ ]
j_samples['normalizing_multiplier'] = [ ]
for name in samples:
j_samples['name'].append(name)
j_samples['tags'].append(sample_tags[name])
j_samples['normalizing_multiplier'].append(float(norms[name]['Normalizing.multiplier']))
j_chromosomes = j_data['chromosomes'] = { }
j_chromosomes['name'] = [ ]
j_chromosomes['length'] = [ ]
for name, seq in chromosomes.iteritems():
j_chromosomes['name'].append(name)
j_chromosomes['length'].append(len(seq))
with open(self.prefix + '.json','wb') as f:
json.dump(j_data, f)
# Output paired peak file
output_comments = [ '#Counts' ]
output_samples = [ ]
for item in samples:
output_samples.append(item+'-peak1')
output_comments.append('#sampleTags=' + ','.join([item+'-peak1','peak1']+sample_tags.get(item,[])))
for item in samples:
output_samples.append(item+'-peak2')
output_comments.append('#sampleTags=' + ','.join([item+'-peak2','peak2']+sample_tags.get(item,[])))
output_names = [ ]
output_counts = [ ]
output_tail_counts = [ ]
output_proportions = [ ]
output_tails = [ ]
output_annotation_fields = [ 'gene', 'product', 'mean_tail_1', 'mean_tail_2', 'chromosome', 'strand',
'transcription_stops' ] #, 'interpeak_seq', ]
output_annotations = [ ]
for item in parents:
peaks = item.relevant_children
for i in xrange(len(peaks)-1):
for j in xrange(i+1, len(peaks)):
id_i = peaks[i].get_id()
id_j = peaks[j].get_id()
id_pair = item.get_id() + '-'+id_i+'-'+id_j
output_names.append(id_pair)
row = [ ]
row.extend(counts[id_i].values())
row.extend(counts[id_j].values())
output_counts.append(filter(_text,row))
row = [ ]
row.extend(tail_counts[id_i].values())
row.extend(tail_counts[id_j].values())
output_tail_counts.append(filter(_text,row))
row = [ ]
row.extend(proportions[id_i].values())
row.extend(proportions[id_j].values())
output_proportions.append(filter(_text,row))
row = [ ]
row.extend(tails[id_i].values())
row.extend(tails[id_j].values())
output_tails.append(filter(_text,row))
output_annotations.append([
item.attr.get('Name',item.attr.get('gene','')),
item.attr.get('Product',item.attr.get('product','')),
count_table['Annotation'][id_i]['mean-tail'],
count_table['Annotation'][id_j]['mean-tail'],
item.seqid,
str(item.strand),
'%d, %d' % (peaks[i].transcription_stop,peaks[j].transcription_stop),
#get_interpeak_seq([peaks[i],peaks[j]]),
])
#output_count_table = io.named_matrix_type(output_names,output_samples)(output_counts)
io.write_grouped_csv(
self.prefix + '-pairs.csv',
[
('Count',io.named_matrix_type(output_names,output_samples)(output_counts)),
('Tail_count',io.named_matrix_type(output_names,output_samples)(output_tail_counts)),
('Proportion',io.named_matrix_type(output_names,output_samples)(output_proportions)),
('Tail',io.named_matrix_type(output_names,output_samples)(output_tails)),
('Annotation',io.named_matrix_type(output_names,output_annotation_fields)(output_annotations)),
],
comments=output_comments,
)
# # Chi Sq tests
#
# #for id in relation:
# # peaks = relation[id]
# # if len(peaks) < 2: continue
#
# mats = [ ]
# genes = [ ]
# products = [ ]
# mean_tails = [ ]
# prop_tails = [ ]
#
# peak_names = [ ]
# chromosome_names = [ ]
# strands = [ ]
# transcription_stops = [ ]
# interpeak_seqs = [ ]
# prepeak_seqs = [ ]
#
# for parent in parents:
# id = parent.get_id()
# peaks = parent.relevant_children
# if len(peaks) < 2: continue
#
# matrix = [ ]
# for item in peaks:
# matrix.append(counts[item.get_id()].values())
#
# mats.append(
# runr.R_literal(id) + ' = ' +
# runr.R_literal(matrix)
# )
#
# genes.append(parent.attr.get('Name',parent.attr.get('gene','')))
# products.append(parent.attr.get('Product',parent.attr.get('product','')))
#
# def format_mean(s):
# if s == 'NA': return 'NA'
# return '%.1f' % float(s)
# mean_tails.append(', '.join( format_mean(count_table['Annotation'][item.get_id()]['mean-tail']) for item in peaks ))
#
# def format_prop(s):
# if s == 'NA': return 'NA'
# return '%.2f' % float(s)
# prop_tails.append(', '.join( format_prop(count_table['Annotation'][item.get_id()]['proportion-with-tail']) for item in peaks ))
#
# peak_names.append(', '.join(item.get_id() for item in peaks))
# chromosome_names.append(parent.seqid)
# strands.append(parent.strand)
# transcription_stops.append(', '.join(str(item.transcription_stop) for item in peaks))
# interpeak_seqs.append(get_interpeak_seq(peaks))
# prepeak_seqs.append(get_prepeak_seq(parent,peaks))
#
# #if len(mats) >= 10: break
#
# text = 'cat("Loading data into R+\n")\n'
# text += 'data <- list(\n' + ',\n'.join(mats) + ')\n'
# text += CHISQ
#
# runr.run_script(text,
# OUTPUT_FILENAME=self.prefix+'.csv',
# GENES = genes,
# PRODUCTS = products,
# MEAN_TAILS = mean_tails,
# PROP_TAILS = prop_tails,
# PEAK_NAMES = peak_names,
# CHROMOSOME_NAMES = chromosome_names,
# STRANDS = strands,
# TRANSCRIPTION_STOPS = transcription_stops,
# INTERPEAK_SEQS = interpeak_seqs,
# PREPEAK_SEQS = prepeak_seqs,
# )
#
def run(self):
data = io.read_grouped_table(
self.counts,
[('Count',str), ('Annotation',str), ('Tail_count',str), ('Tail',str), ('Proportion',str)],
'Count',
)
features = data['Count'].keys()
samples = data['Count'].value_type().keys()
tags = { }
for sample in samples:
tags[sample] = [sample]
for line in data.comments:
if line.startswith('#sampleTags='):
parts = line[len('#sampleTags='):].split(',')
tags[parts[0]] = parts
group_names = [ ]
groups = [ ]
group_tags = [ ]
for item in self.groups:
select = selection.term_specification(item)
name = selection.term_name(item)
group = [ item for item in samples if selection.matches(select, tags[item]) ]
assert group, 'Empty group: '+name
this_group_tags = [ name ]
for tag in tags[group[0]]:
if tag == name: continue
for item in group[1:]:
for item2 in tags[item]:
if tag not in item2: break
else:
this_group_tags.append(tag)
group_names.append(name)
groups.append(group)
group_tags.append(this_group_tags)
result = io.Grouped_table()
result.comments = [ '#Counts' ]
for item in group_tags:
result.comments.append('#sampleTags='+','.join(item))
count = [ ]
tail_count = [ ]
tail = [ ]
proportion = [ ]
for feature in features:
this_count = [ ]
this_tail_count = [ ]
this_tail = [ ]
this_proportion = [ ]
for group in groups:
this_this_count = [ ]
this_this_tail_count = [ ]
this_this_tail = [ ]
this_this_proportion = [ ]
for sample in group:
this_this_count.append(int(data['Count'][feature][sample]))
this_this_tail_count.append(int(data['Tail_count'][feature][sample]))
item = data['Tail'][feature][sample]
if item != 'NA': this_this_tail.append(float(item))
item = data['Proportion'][feature][sample]
if item != 'NA': this_this_proportion.append(float(item))
this_count.append(str(sum(this_this_count)))
this_tail_count.append(str(sum(this_this_tail_count)))
this_tail.append(str(sum(this_this_tail)/len(this_this_tail)) if this_this_tail else 'NA')
this_proportion.append(str(sum(this_this_proportion)/len(this_this_proportion)) if this_this_proportion else 'NA')
count.append(this_count)
tail_count.append(this_tail_count)
tail.append(this_tail)
proportion.append(this_proportion)
matrix = io.named_matrix_type(features,group_names)
result['Count'] = matrix(count)
result['Annotation'] = data['Annotation']
result['Tail_count'] = matrix(tail_count)
result['Tail'] = matrix(tail)
result['Proportion'] = matrix(proportion)
result.write_csv(self.prefix + '.csv')
def run(self):
data = io.read_grouped_table(
self.counts,
[("Count", str), ("Annotation", str), ("Tail_count", str), ("Tail", str), ("Proportion", str)],
"Count",
)
features = data["Count"].keys()
samples = data["Count"].value_type().keys()
tags = {}
for sample in samples:
tags[sample] = [sample]
for line in data.comments:
if line.startswith("#sampleTags="):
parts = line[len("#sampleTags=") :].split(",")
tags[parts[0]] = parts
group_names = []
groups = []
group_tags = []
for item in self.groups:
select = selection.term_specification(item)
name = selection.term_name(item)
group = [item for item in samples if selection.matches(select, tags[item])]
assert group, "Empty group: " + name
this_group_tags = [name]
for tag in tags[group[0]]:
if tag == name:
continue
for item in group[1:]:
for item2 in tags[item]:
if tag not in item2:
break
else:
this_group_tags.append(tag)
group_names.append(name)
groups.append(group)
group_tags.append(this_group_tags)
result = io.Grouped_table()
result.comments = ["#Counts"]
for item in group_tags:
result.comments.append("#sampleTags=" + ",".join(item))
count = []
tail_count = []
tail = []
proportion = []
for feature in features:
this_count = []
this_tail_count = []
this_tail = []
this_proportion = []
for group in groups:
this_this_count = []
this_this_tail_count = []
this_this_tail = []
this_this_proportion = []
for sample in group:
this_this_count.append(int(data["Count"][feature][sample]))
this_this_tail_count.append(int(data["Tail_count"][feature][sample]))
item = data["Tail"][feature][sample]
if item != "NA":
this_this_tail.append(float(item))
item = data["Proportion"][feature][sample]
if item != "NA":
this_this_proportion.append(float(item))
this_count.append(str(sum(this_this_count)))
this_tail_count.append(str(sum(this_this_tail_count)))
this_tail.append(str(sum(this_this_tail) / len(this_this_tail)) if this_this_tail else "NA")
this_proportion.append(
str(sum(this_this_proportion) / len(this_this_proportion)) if this_this_proportion else "NA"
)
count.append(this_count)
tail_count.append(this_tail_count)
tail.append(this_tail)
proportion.append(this_proportion)
matrix = io.named_matrix_type(features, group_names)
result["Count"] = matrix(count)
result["Annotation"] = data["Annotation"]
result["Tail_count"] = matrix(tail_count)
result["Tail"] = matrix(tail)
result["Proportion"] = matrix(proportion)
result.write_csv(self.prefix + ".csv")
def run(self):
#assert not self.utr_only or self.utrs, '--utrs-only yes but no --utrs given'
# Reference genome
#chromosome_lengths = reference_directory.Reference(self.reference, must_exist=True).get_lengths()
chromosomes = collections.OrderedDict(io.read_sequences(
self.reference))
def get_interpeak_seq(peaks):
start = min(item.transcription_stop for item in peaks)
end = max(item.transcription_stop for item in peaks)
if end - start > self.max_seq: return ''
if peaks[0].strand >= 0:
return chromosomes[peaks[0].seqid][start:end]
else:
return bio.reverse_complement(
chromosomes[peaks[0].seqid][start:end])
def get_prepeak_seq(gene, peaks):
if gene.strand >= 0:
start = gene.utr_pos
end = min(item.transcription_stop for item in peaks)
if end - start > self.max_seq: return ''
return chromosomes[gene.seqid][start:end]
else:
start = max(item.transcription_stop for item in peaks)
end = gene.utr_pos
if end - start > self.max_seq: return ''
return bio.reverse_complement(
chromosomes[gene.seqid][start:end])
# Normalization files
if self.norm_file:
norm_file = self.norm_file
else:
nesoni.Norm_from_counts(self.prefix + '-norm', self.counts).run()
norm_file = self.prefix + '-norm.csv'
norms = io.read_grouped_table(norm_file, [('All', str)])['All']
pair_norm_names = []
pair_norms = []
for i in xrange(len(norms)):
pair_norm_names.append(norms.keys()[i] + '-peak1')
pair_norms.append(norms.values()[i])
for i in xrange(len(norms)):
pair_norm_names.append(norms.keys()[i] + '-peak2')
pair_norms.append(norms.values()[i])
io.write_grouped_csv(
self.prefix + '-pairs-norm.csv',
[('All', io.named_list_type(pair_norm_names)(pair_norms))],
comments=['#Normalization'],
)
# Read data
annotations = list(annotation.read_annotations(self.parents))
if self.utrs:
utrs = list(annotation.read_annotations(self.utrs))
else:
utrs = []
children = list(annotation.read_annotations(self.children))
count_table = io.read_grouped_table(self.counts,
[('Count', int),
('Tail_count', int),
('Tail', _float_or_none),
('Proportion', _float_or_none),
('Annotation', str)])
counts = count_table['Count']
tail_counts = count_table['Tail_count']
proportions = count_table['Proportion']
tails = count_table['Tail']
samples = counts.value_type().keys()
sample_tags = {}
for line in count_table.comments:
if line.startswith('#sampleTags='):
parts = line[len('#sampleTags='):].split(',')
assert parts[0] not in sample_tags
sample_tags[parts[0]] = parts
for item in children:
item.weight = sum(counts[item.get_id()][name] *
float(norms[name]['Normalizing.multiplier'])
for name in samples)
parents = []
id_to_parent = {}
for item in annotations:
if item.type != self.parent_type: continue
assert item.get_id(
) not in id_to_parent, 'Duplicate id in parent file: ' + item.get_id(
)
parents.append(item)
id_to_parent[item.get_id()] = item
item.children = []
#item.cds = [ ]
# Default utr
if item.strand >= 0:
item.utr_pos = item.end
else:
item.utr_pos = item.start
if 'three_prime_UTR_start' in item.attr:
if item.strand >= 0:
item.utr_pos = int(item.attr['three_prime_UTR_start']) - 1
else:
item.utr_pos = int(item.attr['three_prime_UTR_start'])
for item in utrs:
assert item.attr[
'Parent'] in id_to_parent, 'Unknown gene ' + item.attr['Parent']
id_to_parent[item.attr['Parent']].utr_pos = (
item.start if item.strand >= 0 else item.end)
for item in children:
item.transcription_stop = item.end if item.strand >= 0 else item.start #End of transcription, 0-based, ie between-positions based
if 'Parent' in item.attr and item.attr.get(
"Relation") != "Antisense":
for item_parent in item.attr['Parent'].split(','):
parent = id_to_parent[item_parent]
parent.children.append(item)
for item in parents:
item.children.sort(key=_annotation_sorter)
relevant = list(item.children)
if self.utr_only:
#if item.strand <= 0:
# relative_utr_start = item.end - int(item.attr['three_prime_UTR_start'])
#else:
# relative_utr_start = int(item.attr['three_prime_UTR_start'])-1 - item.start
#
#def relative_start(peak):
# return item.end-peak.end if item.strand < 0 else peak.start-item.start
#relevant = [ peak for peak in relevant if relative_start(peak) >= relative_utr_start ]
#relevant = [
# peak for peak in relevant
# if (peak.end >= item.utr_pos if item.strand >= 0 else peak.start <= item.utr_pos)
# ]
relevant = [
peak for peak in relevant
if peak.attr.get("Relation") == "3'UTR"
]
if self.top:
relevant.sort(key=lambda peak: peak.weight, reverse=True)
relevant = relevant[:self.top]
relevant.sort(key=_annotation_sorter)
item.relevant_children = relevant
# JSON output
j_data = {}
j_genes = j_data['genes'] = {}
j_genes['__comment__'] = 'start is 0-based'
j_genes['name'] = []
j_genes['chromosome'] = []
j_genes['strand'] = []
j_genes['start'] = []
j_genes['utr'] = []
j_genes['end'] = []
j_genes['gene'] = []
j_genes['product'] = []
j_genes['peaks'] = []
j_genes['relevant_peaks'] = []
#j_genes['cds'] = [ ]
#j_genes['cds_start'] = [ ]
#j_genes['cds_end'] = [ ]
for item in parents:
j_genes['name'].append(item.get_id())
j_genes['chromosome'].append(item.seqid)
j_genes['strand'].append(item.strand)
j_genes['start'].append(item.start)
j_genes['utr'].append(item.utr_pos)
j_genes['end'].append(item.end)
j_genes['gene'].append(
item.attr.get('Name', item.attr.get('gene', '')))
j_genes['product'].append(
item.attr.get('Product', item.attr.get('product', '')))
j_genes['peaks'].append(
[item2.get_id() for item2 in item.children])
j_genes['relevant_peaks'].append(
[item2.get_id() for item2 in item.relevant_children])
#j_genes['cds'].append( item.cds )
#j_genes['cds_start'].append( item.cds_start )
#j_genes['cds_end'].append( item.cds_end )
j_peaks = j_data['peaks'] = {}
j_peaks['__comment__'] = 'start is 0-based'
j_peaks['name'] = []
j_peaks['chromosome'] = []
j_peaks['strand'] = []
j_peaks['start'] = []
j_peaks['end'] = []
j_peaks['parents'] = []
j_peaks['counts'] = []
j_peaks['tail_lengths'] = []
j_peaks['proportion_tailed'] = []
for item in children:
j_peaks['name'].append(item.get_id())
j_peaks['chromosome'].append(item.seqid)
j_peaks['strand'].append(item.strand)
j_peaks['start'].append(item.start)
j_peaks['end'].append(item.end)
j_peaks['parents'].append(item.attr['Parent'].split(',')
if 'Parent' in item.attr else [])
j_peaks['counts'].append(counts[item.get_id()].values())
j_peaks['tail_lengths'].append(
count_table['Tail'][item.get_id()].values())
j_peaks['proportion_tailed'].append(
count_table['Proportion'][item.get_id()].values())
j_samples = j_data['samples'] = {}
j_samples['name'] = []
j_samples['tags'] = []
j_samples['normalizing_multiplier'] = []
for name in samples:
j_samples['name'].append(name)
j_samples['tags'].append(sample_tags[name])
j_samples['normalizing_multiplier'].append(
float(norms[name]['Normalizing.multiplier']))
j_chromosomes = j_data['chromosomes'] = {}
j_chromosomes['name'] = []
j_chromosomes['length'] = []
for name, seq in chromosomes.iteritems():
j_chromosomes['name'].append(name)
j_chromosomes['length'].append(len(seq))
with open(self.prefix + '.json', 'wb') as f:
json.dump(j_data, f)
# Output paired peak file
output_comments = ['#Counts']
output_samples = []
for item in samples:
output_samples.append(item + '-peak1')
output_comments.append('#sampleTags=' +
','.join([item + '-peak1', 'peak1'] +
sample_tags.get(item, [])))
for item in samples:
output_samples.append(item + '-peak2')
output_comments.append('#sampleTags=' +
','.join([item + '-peak2', 'peak2'] +
sample_tags.get(item, [])))
output_names = []
output_counts = []
output_tail_counts = []
output_proportions = []
output_tails = []
output_annotation_fields = [
'gene', 'product', 'biotype', 'mean_tail_1', 'mean_tail_2',
'chromosome', 'strand', 'transcription_stops'
] #, 'interpeak_seq', ]
output_annotations = []
for item in parents:
peaks = item.relevant_children
for i in xrange(len(peaks) - 1):
for j in xrange(i + 1, len(peaks)):
id_i = peaks[i].get_id()
id_j = peaks[j].get_id()
id_pair = item.get_id() + '-' + id_i + '-' + id_j
output_names.append(id_pair)
row = []
row.extend(counts[id_i].values())
row.extend(counts[id_j].values())
output_counts.append(filter(_text, row))
row = []
row.extend(tail_counts[id_i].values())
row.extend(tail_counts[id_j].values())
output_tail_counts.append(filter(_text, row))
row = []
row.extend(proportions[id_i].values())
row.extend(proportions[id_j].values())
output_proportions.append(filter(_text, row))
row = []
row.extend(tails[id_i].values())
row.extend(tails[id_j].values())
output_tails.append(filter(_text, row))
output_annotations.append([
item.attr.get('Name', item.attr.get('gene', '')),
item.attr.get('Product', item.attr.get('product', '')),
item.attr.get('Biotype', ''),
count_table['Annotation'][id_i]['mean-tail'],
count_table['Annotation'][id_j]['mean-tail'],
item.seqid,
str(item.strand),
'%d, %d' % (peaks[i].transcription_stop,
peaks[j].transcription_stop),
#get_interpeak_seq([peaks[i],peaks[j]]),
])
#output_count_table = io.named_matrix_type(output_names,output_samples)(output_counts)
io.write_grouped_csv(
self.prefix + '-pairs.csv',
[
('Count', io.named_matrix_type(output_names,
output_samples)(output_counts)),
('Tail_count',
io.named_matrix_type(output_names,
output_samples)(output_tail_counts)),
('Proportion',
io.named_matrix_type(output_names,
output_samples)(output_proportions)),
('Tail', io.named_matrix_type(output_names,
output_samples)(output_tails)),
('Annotation',
io.named_matrix_type(
output_names,
output_annotation_fields)(output_annotations)),
],
comments=output_comments,
)
def run(self):
data = io.read_grouped_table(
self.counts,
[('Count', str), ('Annotation', str), ('Tail_count', str),
('Tail', str), ('Proportion', str)],
'Count',
)
features = data['Count'].keys()
samples = data['Count'].value_type().keys()
tags = {}
for sample in samples:
tags[sample] = [sample]
for line in data.comments:
if line.startswith('#sampleTags='):
parts = line[len('#sampleTags='):].split(',')
tags[parts[0]] = parts
group_names = []
groups = []
group_tags = []
for item in self.groups:
select = selection.term_specification(item)
name = selection.term_name(item)
group = [
item for item in samples
if selection.matches(select, tags[item])
]
assert group, 'Empty group: ' + name
this_group_tags = [name]
for tag in tags[group[0]]:
if tag == name: continue
for item in group[1:]:
for item2 in tags[item]:
if tag not in item2: break
else:
this_group_tags.append(tag)
group_names.append(name)
groups.append(group)
group_tags.append(this_group_tags)
result = io.Grouped_table()
result.comments = ['#Counts']
for item in group_tags:
result.comments.append('#sampleTags=' + ','.join(item))
count = []
tail_count = []
tail = []
proportion = []
for feature in features:
this_count = []
this_tail_count = []
this_tail = []
this_proportion = []
for group in groups:
this_this_count = []
this_this_tail_count = []
this_this_tail = []
this_this_proportion = []
for sample in group:
this_this_count.append(int(data['Count'][feature][sample]))
this_this_tail_count.append(
int(data['Tail_count'][feature][sample]))
item = data['Tail'][feature][sample]
if item != 'NA': this_this_tail.append(float(item))
item = data['Proportion'][feature][sample]
if item != 'NA': this_this_proportion.append(float(item))
this_count.append(str(sum(this_this_count)))
this_tail_count.append(str(sum(this_this_tail_count)))
this_tail.append(
str(sum(this_this_tail) /
len(this_this_tail)) if this_this_tail else 'NA')
this_proportion.append(
str(sum(this_this_proportion) / len(this_this_proportion)
) if this_this_proportion else 'NA')
count.append(this_count)
tail_count.append(this_tail_count)
tail.append(this_tail)
proportion.append(this_proportion)
matrix = io.named_matrix_type(features, group_names)
result['Count'] = matrix(count)
result['Annotation'] = data['Annotation']
result['Tail_count'] = matrix(tail_count)
result['Tail'] = matrix(tail)
result['Proportion'] = matrix(proportion)
result.write_csv(self.prefix + '.csv')
