Things get really messy when trying to pass unicode strings
to redland in python2. I found it simpler to just try and keep
using the native string type.
So this patch is largely replacing unicode() to str() and
changing u'' to ''.
fc42jtn = self.fc42jtn
fc42ju1 = FlowCellFactory(flowcell_id='42JU1AAXX')
fc42jtn = self.fc42jtn
fc42ju1 = FlowCellFactory(flowcell_id='42JU1AAXX')
- for fc_id in [u'FC12150', u"42JTNAAXX", "42JU1AAXX"]:
+ for fc_id in ['FC12150', '42JTNAAXX', '42JU1AAXX']:
fc_dict = flowcell_information(fc_id)
fc_django = FlowCell.objects.get(flowcell_id=fc_id)
self.assertEqual(fc_dict['flowcell_id'], fc_id)
fc_dict = flowcell_information(fc_id)
fc_django = FlowCell.objects.get(flowcell_id=fc_id)
self.assertEqual(fc_dict['flowcell_id'], fc_id)
for lane in fc_django.lane_set.all():
for lane in fc_django.lane_set.all():
- lane_contents = fc_json['lane_set'][unicode(lane.lane_number)]
+ lane_contents = fc_json['lane_set'][str(lane.lane_number)]
lane_dict = multi_lane_to_dict(lane_contents)[lane.library_id]
self.assertEqual(lane_dict['cluster_estimate'], lane.cluster_estimate)
lane_dict = multi_lane_to_dict(lane_contents)[lane.library_id]
self.assertEqual(lane_dict['cluster_estimate'], lane.cluster_estimate)
"""
Require logging in to retrieve meta data
"""
"""
Require logging in to retrieve meta data
"""
- response = self.client.get(u'/experiments/config/FC12150/json')
+ response = self.client.get('/experiments/config/FC12150/json')
self.assertEqual(response.status_code, 403)
def test_library_id(self):
self.assertEqual(response.status_code, 403)
def test_library_id(self):
This tests to make sure that the value entered in the raw library id field matches
the library id looked up.
"""
This tests to make sure that the value entered in the raw library id field matches
the library id looked up.
"""
- expected_ids = [ u'1215{}'.format(i) for i in range(1,9) ]
+ expected_ids = [ '1215{}'.format(i) for i in range(1,9) ]
self.assertTrue(self.client.login(username=self.admin.username, password=self.password))
response = self.client.get('/admin/experiments/flowcell/{}/'.format(self.fc12150.id))
self.assertTrue(self.client.login(username=self.admin.username, password=self.password))
response = self.client.get('/admin/experiments/flowcell/{}/'.format(self.fc12150.id))
count = 0
for r in query.execute(model):
count += 1
count = 0
for r in query.execute(model):
count += 1
- self.assertEqual(fromTypedNode(r['flowcell_id']), u'FC12150')
+ self.assertEqual(fromTypedNode(r['flowcell_id']), 'FC12150')
lane_id = fromTypedNode(r['lane_id'])
library_id = fromTypedNode(r['library_id'])
self.assertTrue(library_id in expected[lane_id])
lane_id = fromTypedNode(r['lane_id'])
library_id = fromTypedNode(r['library_id'])
self.assertTrue(library_id in expected[lane_id])
seq.instrument_name = "HWI-SEQ1"
seq.model = "Imaginary 5000"
seq.instrument_name = "HWI-SEQ1"
seq.model = "Imaginary 5000"
- self.assertEqual(unicode(seq), "Seq1 (HWI-SEQ1)")
+ self.assertEqual(str(seq), "Seq1 (HWI-SEQ1)")
def test_lookup(self):
fc = self.fc12150
def test_lookup(self):
fc = self.fc12150
def get_elements(self):
lane = ElementTree.Element(ElandLane.LANE,
{'version':
def get_elements(self):
lane = ElementTree.Element(ElandLane.LANE,
{'version':
- unicode(ElandLane.XML_VERSION)})
+ str(ElandLane.XML_VERSION)})
sample_tag = ElementTree.SubElement(lane, SAMPLE_NAME)
sample_tag.text = self.sample_name
lane_tag = ElementTree.SubElement(lane, LANE_ID)
sample_tag = ElementTree.SubElement(lane, SAMPLE_NAME)
sample_tag.text = self.sample_name
lane_tag = ElementTree.SubElement(lane, LANE_ID)
for k, v in self.genome_map.items():
item = ElementTree.SubElement(
genome_map, GENOME_ITEM,
for k, v in self.genome_map.items():
item = ElementTree.SubElement(
genome_map, GENOME_ITEM,
- {'name':k, 'value':unicode(v)})
+ {'name':k, 'value':str(v)})
mapped_reads = ElementTree.SubElement(lane, MAPPED_READS)
for k, v in self.mapped_reads.items():
item = ElementTree.SubElement(
mapped_reads, MAPPED_ITEM,
mapped_reads = ElementTree.SubElement(lane, MAPPED_READS)
for k, v in self.mapped_reads.items():
item = ElementTree.SubElement(
mapped_reads, MAPPED_ITEM,
- {'name':k, 'value':unicode(v)})
+ {'name':k, 'value':str(v)})
match_codes = ElementTree.SubElement(lane, MATCH_CODES)
for k, v in self.match_codes.items():
item = ElementTree.SubElement(
match_codes, MATCH_ITEM,
match_codes = ElementTree.SubElement(lane, MATCH_CODES)
for k, v in self.match_codes.items():
item = ElementTree.SubElement(
match_codes, MATCH_ITEM,
- {'name':k, 'value':unicode(v)})
+ {'name':k, 'value':str(v)})
reads = ElementTree.SubElement(lane, READS)
reads = ElementTree.SubElement(lane, READS)
- reads.text = unicode(self.reads)
+ reads.text = str(self.reads)
def get_elements(self):
lane = ElementTree.Element(SequenceLane.LANE,
{'version':
def get_elements(self):
lane = ElementTree.Element(SequenceLane.LANE,
{'version':
- unicode(SequenceLane.XML_VERSION)})
+ str(SequenceLane.XML_VERSION)})
sample_tag = ElementTree.SubElement(lane, SAMPLE_NAME)
sample_tag.text = self.sample_name
lane_tag = ElementTree.SubElement(lane, LANE_ID)
sample_tag = ElementTree.SubElement(lane, SAMPLE_NAME)
sample_tag.text = self.sample_name
lane_tag = ElementTree.SubElement(lane, LANE_ID)
end_tag = ElementTree.SubElement(lane, END)
end_tag.text = str(self.end)
reads = ElementTree.SubElement(lane, READS)
end_tag = ElementTree.SubElement(lane, END)
end_tag.text = str(self.end)
reads = ElementTree.SubElement(lane, READS)
- reads.text = unicode(self.reads)
+ reads.text = str(self.reads)
sequence_type = ElementTree.SubElement(lane, SequenceLane.SEQUENCE_TYPE)
sequence_type = ElementTree.SubElement(lane, SequenceLane.SEQUENCE_TYPE)
- sequence_type.text = unicode(SequenceLane.SEQUENCE_DESCRIPTION[self.sequence_type])
+ sequence_type.text = str(SequenceLane.SEQUENCE_DESCRIPTION[self.sequence_type])
def get_elements(self):
root = ElementTree.Element(ELAND.ELAND,
def get_elements(self):
root = ElementTree.Element(ELAND.ELAND,
- {'version': unicode(ELAND.XML_VERSION)})
+ {'version': str(ELAND.XML_VERSION)})
for key in self:
eland_lane = self[key].get_elements()
for key in self:
eland_lane = self[key].get_elements()
- eland_lane.attrib[ELAND.END] = unicode(self[key].end-1)
- eland_lane.attrib[ELAND.LANE_ID] = unicode(self[key].lane_id)
- eland_lane.attrib[ELAND.SAMPLE] = unicode(self[key].sample_name)
+ eland_lane.attrib[ELAND.END] = str(self[key].end-1)
+ eland_lane.attrib[ELAND.LANE_ID] = str(self[key].lane_id)
+ eland_lane.attrib[ELAND.SAMPLE] = str(self[key].sample_name)
root.append(eland_lane)
return root
return root
root.append(eland_lane)
return root
return root
def key(self):
return (self.flowcell, self.lane, self.read, self.project, self.split)
def key(self):
return (self.flowcell, self.lane, self.read, self.project, self.split)
- def __unicode__(self):
- return unicode(self.path)
+ def __str__(self):
+ return str(self.path)
def __eq__(self, other):
"""
def __eq__(self, other):
"""
def add(model, s, p, o):
model.add_statement(RDF.Statement(s,p,o))
# a bit unreliable... assumes filesystem is encoded in utf-8
def add(model, s, p, o):
model.add_statement(RDF.Statement(s,p,o))
# a bit unreliable... assumes filesystem is encoded in utf-8
- path = os.path.abspath(self.path.encode('utf-8'))
+ path = os.path.abspath(self.path)
fileNode = RDF.Node(RDF.Uri('file://' + path))
add(model, fileNode, rdfNS['type'], libNS['IlluminaResult'])
add_lit(model, fileNode, libNS['flowcell_id'], self.flowcell)
fileNode = RDF.Node(RDF.Uri('file://' + path))
add(model, fileNode, rdfNS['type'], libNS['IlluminaResult'])
add_lit(model, fileNode, libNS['flowcell_id'], self.flowcell)
Make an etree subelement <Name mean='mean', deviation='deviation'/>
"""
element = etree.SubElement(parent, name,
Make an etree subelement <Name mean='mean', deviation='deviation'/>
"""
element = etree.SubElement(parent, name,
- { 'mean': unicode(mean),
- 'deviation': unicode(deviation)})
+ { 'mean': str(mean),
+ 'deviation': str(deviation)})
return element
def parse_mean_range_element(element):
return element
def parse_mean_range_element(element):
self.assertEqual(f0.filetype, 'srf')
self.assertEqual(f0.path, pathname)
self.assertEqual(f0.filetype, 'srf')
self.assertEqual(f0.path, pathname)
- self.assertEqual(unicode(f0), unicode(pathname))
+ self.assertEqual(str(f0), str(pathname))
self.assertEqual(repr(f0), "<srf 42BW9AAXX 4 %s>" % (pathname,))
self.assertEqual(f0.flowcell, '42BW9AAXX')
self.assertEqual(f0.lane, '4')
self.assertEqual(repr(f0), "<srf 42BW9AAXX 4 %s>" % (pathname,))
self.assertEqual(f0.flowcell, '42BW9AAXX')
self.assertEqual(f0.lane, '4')
self.assertEqual(f0.filetype, 'qseq')
self.assertEqual(f0.path, pathname)
self.assertEqual(f0.filetype, 'qseq')
self.assertEqual(f0.path, pathname)
- self.assertEqual(unicode(f0), unicode(pathname))
+ self.assertEqual(str(f0), str(pathname))
self.assertEqual(repr(f0), "<qseq 42BW9AAXX 4 %s>" %(pathname,))
self.assertEqual(f0.flowcell, '42BW9AAXX')
self.assertEqual(f0.lane, '4')
self.assertEqual(repr(f0), "<qseq 42BW9AAXX 4 %s>" %(pathname,))
self.assertEqual(f0.flowcell, '42BW9AAXX')
self.assertEqual(f0.lane, '4')
self.assertEqual(f0.filetype, 'qseq')
self.assertEqual(f0.path, pathname)
self.assertEqual(f0.filetype, 'qseq')
self.assertEqual(f0.path, pathname)
- self.assertEqual(unicode(f0), unicode(pathname))
+ self.assertEqual(str(f0), str(pathname))
self.assertEqual(repr(f0), "<qseq ilmn200901 1 %s>" %(pathname,))
self.assertEqual(f0.lane, '1')
self.assertEqual(f0.read, 1)
self.assertEqual(repr(f0), "<qseq ilmn200901 1 %s>" %(pathname,))
self.assertEqual(f0.lane, '1')
self.assertEqual(f0.read, 1)
self.assertEqual(f0.filetype, 'fastq')
self.assertEqual(f0.path, pathname)
self.assertEqual(f0.filetype, 'fastq')
self.assertEqual(f0.path, pathname)
- self.assertEqual(unicode(f0), unicode(pathname))
+ self.assertEqual(str(f0), str(pathname))
self.assertEqual(repr(f0), "<fastq 42BW9AAXX 4 %s>" % (pathname,))
self.assertEqual(f0.flowcell, '42BW9AAXX')
self.assertEqual(f0.lane, '4')
self.assertEqual(repr(f0), "<fastq 42BW9AAXX 4 %s>" % (pathname,))
self.assertEqual(f0.flowcell, '42BW9AAXX')
self.assertEqual(f0.lane, '4')
self.assertEqual(f0.filetype, 'fastq')
self.assertEqual(f0.path, pathname)
self.assertEqual(f0.filetype, 'fastq')
self.assertEqual(f0.path, pathname)
- self.assertEqual(unicode(f0), unicode(pathname))
+ self.assertEqual(str(f0), str(pathname))
self.assertEqual(repr(f0), "<fastq 42BW9AAXX 4 %s>" %(pathname,))
self.assertEqual(f0.flowcell, '42BW9AAXX')
self.assertEqual(f0.lane, '4')
self.assertEqual(repr(f0), "<fastq 42BW9AAXX 4 %s>" %(pathname,))
self.assertEqual(f0.flowcell, '42BW9AAXX')
self.assertEqual(f0.lane, '4')
self.assertEqual(f0.filetype, 'split_fastq')
self.assertEqual(f0.path, pathname)
self.assertEqual(f0.filetype, 'split_fastq')
self.assertEqual(f0.path, pathname)
- self.assertEqual(unicode(f0), unicode(pathname))
+ self.assertEqual(str(f0), str(pathname))
self.assertEqual(repr(f0), "<split_fastq 42BW9AAXX 1 %s>" %(pathname,))
self.assertEqual(f0.flowcell, '42BW9AAXX')
self.assertEqual(f0.lane, '1')
self.assertEqual(repr(f0), "<split_fastq 42BW9AAXX 1 %s>" %(pathname,))
self.assertEqual(f0.flowcell, '42BW9AAXX')
self.assertEqual(f0.lane, '1')
self.assertEqual(f0.filetype, 'split_fastq')
self.assertEqual(f0.path, pathname)
self.assertEqual(f0.filetype, 'split_fastq')
self.assertEqual(f0.path, pathname)
- self.assertEqual(unicode(f0), unicode(pathname))
+ self.assertEqual(str(f0), str(pathname))
self.assertEqual(repr(f0), "<split_fastq 42BW9AAXX 1 %s>" % (pathname,))
self.assertEqual(f0.flowcell, '42BW9AAXX')
self.assertEqual(f0.lane, '1')
self.assertEqual(repr(f0), "<split_fastq 42BW9AAXX 1 %s>" % (pathname,))
self.assertEqual(f0.flowcell, '42BW9AAXX')
self.assertEqual(f0.lane, '1')
and False if it fails.
"""
try:
and False if it fails.
"""
try:
- XHTML_RDF_DTD = lxml.etree.DTD(external_id='-//W3C//DTD XHTML+RDFa 1.0//EN')
+ XHTML_RDF_DTD = lxml.etree.DTD(external_id=b'-//W3C//DTD XHTML+RDFa 1.0//EN')
except lxml.etree.DTDParseError as e:
LOGGER.warn("Unable to load XHTML DTD %s" % (str(e),))
return
except lxml.etree.DTDParseError as e:
LOGGER.warn("Unable to load XHTML DTD %s" % (str(e),))
return
-from __future__ import absolute_import, print_function, unicode_literals
+from __future__ import absolute_import, print_function
itemNode = RDF.Node(RDF.Uri(url))
item_type = fromTypedNode(
itemNode = RDF.Node(RDF.Uri(url))
item_type = fromTypedNode(
- model.get_target(itemNode, inventoryOntology[b'item_type']))
+ model.get_target(itemNode, inventoryOntology['item_type']))
self.failUnlessEqual(item_type, item.item_type.name)
def test_itemindex(self):
self.failUnlessEqual(item_type, item.item_type.name)
def test_itemindex(self):
-from __future__ import absolute_import, print_function, unicode_literals
+from __future__ import absolute_import, print_function
import datetime
import unittest
import datetime
import unittest
import RDF
HAVE_RDF = True
import RDF
HAVE_RDF = True
- rdfNS = RDF.NS(b"http://www.w3.org/1999/02/22-rdf-syntax-ns#")
- xsdNS = RDF.NS(b"http://www.w3.org/2001/XMLSchema#")
- libNS = RDF.NS(b"http://jumpgate.caltech.edu/wiki/LibraryOntology#")
+ rdfNS = RDF.NS("http://www.w3.org/1999/02/22-rdf-syntax-ns#")
+ xsdNS = RDF.NS("http://www.w3.org/2001/XMLSchema#")
+ libNS = RDF.NS("http://jumpgate.caltech.edu/wiki/LibraryOntology#")
from htsworkflow.util.rdfhelp import dump_model
except ImportError as e:
from htsworkflow.util.rdfhelp import dump_model
except ImportError as e:
def test_parse_rdfa(self):
model = get_rdf_memory_model()
def test_parse_rdfa(self):
model = get_rdf_memory_model()
- parser = RDF.Parser(name=b'rdfa')
+ parser = RDF.Parser(name='rdfa')
bob = AffiliationFactory.create(name='Bob')
bob = AffiliationFactory.create(name='Bob')
#with open('/tmp/test.ttl', 'w') as outstream:
# dump_model(model, outstream)
# http://jumpgate.caltech.edu/wiki/LibraryOntology#affiliation>
#with open('/tmp/test.ttl', 'w') as outstream:
# dump_model(model, outstream)
# http://jumpgate.caltech.edu/wiki/LibraryOntology#affiliation>
- self.check_literal_object(model, ['Bob'], p=libNS[b'affiliation'])
+ self.check_literal_object(model, ['Bob'], p=libNS['affiliation'])
self.check_literal_object(model,
['experiment type name'],
self.check_literal_object(model,
['experiment type name'],
- p=libNS[b'experiment_type'])
- self.check_literal_object(model, ['400'], p=libNS[b'gel_cut'])
+ p=libNS['experiment_type'])
+ self.check_literal_object(model, ['400'], p=libNS['gel_cut'])
self.check_literal_object(model,
['microfluidics bot 7321'],
self.check_literal_object(model,
['microfluidics bot 7321'],
self.check_literal_object(model,
[lib_object.library_name],
self.check_literal_object(model,
[lib_object.library_name],
self.check_literal_object(model,
[lib_object.library_species.scientific_name],
self.check_literal_object(model,
[lib_object.library_species.scientific_name],
- p=libNS[b'species_name'])
+ p=libNS['species_name'])
def check_literal_object(self, model, values, s=None, p=None, o=None):
def check_literal_object(self, model, values, s=None, p=None, o=None):