def rawHTML(self, markup):
# output = htmlparse(markup).html.body.xml_encode() if markup else ''
if markup:
body = markup_fragment(inputsource.text(markup))
for child in body.xml_children:
self._curr.xml_append(child)
# self._curr.xml_append(tree.text(output.decode(config.charset)))
# print "rawHTML", htmlparse(markup).xml_encode()
return ""
def rawHTML(self, markup):
#output = htmlparse(markup).html.body.xml_encode() if markup else ''
if markup:
body = markup_fragment(inputsource.text(markup))
for child in body.xml_children:
self._curr.xml_append(child)
#self._curr.xml_append(tree.text(output.decode(config.charset)))
#print "rawHTML", htmlparse(markup).xml_encode()
return ''
def macro(self, macro_obj, name, args, markup=None):
# Macro response are (unescaped) markup. Do what little clean-up we camn, and cross fingers
output = FormatterBase.macro(self, macro_obj, name, args, markup=markup)
# response is Unicode
if output:
output_body = markup_fragment(inputsource.text(output.encode(config.charset)))
# print "macro 2", repr(output)
self._curr.xml_append(output_body)
return ""
def from_rss2(feedxml):
'''
feedxml - an input source with an RSS 2.0 document
'''
#WARNING: Quite broken! Probably need feedparser to e.g. deal with crap rss 2 dates
source = bindery.parse(feedxml)#, model=FEED_MODEL)
title = html.markup_fragment(inputsource.text(str(source.rss.channel.title))).xml_encode()
#FIXME: bindery modeling FTW!
try:
updated = unicode(source.rss.channel.pubDate)
except AttributeError:
updated = None
link = unicode(source.rss.channel.link)
try:
summary = html.markup_fragment(inputsource.text(str(source.rss.channel.description))).xml_encode()
except AttributeError:
summary = None
f = feed(title=title, updated=updated, id=link)
for item in source.rss.channel.item:
title = html.markup_fragment(inputsource.text(str(item.title))).xml_encode()
try:
summary = html.markup_fragment(inputsource.text(str(item.description))).xml_encode()
except AttributeError:
summary = None
#author is dc:creator?
#category is category/@domain?
#try:
# authors = [ (u'%s, %s, %s'%(U(metadata[a][u'LastName']), U(metadata[a].get(u'FirstName', [u''])[0]), U(metadata[a][u'Initials'])), None, None) for a in resource.get(u'Author', []) ]
#except:
# authors = []
links = [
#FIXME: self?
(U(item.link), u'alternate'),
]
f.append(
U(item.link),
title,
updated = unicode(item.pubDate),
summary=summary,
#authors=authors,
links=links,
)
return f
def macro(self, macro_obj, name, args, markup=None):
#Macro response are (unescaped) markup. Do what little clean-up we camn, and cross fingers
output = FormatterBase.macro(self,
macro_obj,
name,
args,
markup=markup)
#response is Unicode
if output:
output_body = markup_fragment(
inputsource.text(output.encode(config.charset)))
#print "macro 2", repr(output)
self._curr.xml_append(output_body)
return ''
def from_markdown(md, output, encoding='utf-8', config=None):
"""
Translate the Versa Markdown syntax into Versa model relationships
md -- markdown source text
output -- Versa model to take the output relationship
encoding -- character encoding (defaults to UTF-8)
No return value
"""
#Set up configuration to interpret the conventions for the Markdown
config = config or {}
#This mapping takes syntactical elements such as the various header levels in Markdown and associates a resource type with the specified resources
syntaxtypemap = {}
if config.get('autotype-h1'): syntaxtypemap[u'h1'] = config.get('autotype-h1')
if config.get('autotype-h2'): syntaxtypemap[u'h2'] = config.get('autotype-h2')
if config.get('autotype-h3'): syntaxtypemap[u'h3'] = config.get('autotype-h3')
interp = config.get('interpretations', {})
#Map the interpretation IRIs to functions to do the data prep
for prop, interp_key in interp.iteritems():
if interp_key in PREP_METHODS:
interp[prop] = PREP_METHODS[interp_key]
else:
#just use the identity, i.e. no-op
interp[prop] = lambda x, **kwargs: x
#Parse the Markdown
h = markdown.markdown(md.decode(encoding))
doc = html.markup_fragment(inputsource.text(h.encode('utf-8')))
#Each section contains one resource description, but the special one named @docheader contains info to help interpret the rest
top_section_fields = results_until(doc.xml_select(u'//h1[1]/following-sibling::h2'), u'self::h1')
docheader = doc.xml_select(u'//h1[.="@docheader"]')[0]
sections = doc.xml_select(u'//h1|h2|h3[not(.="@docheader")]')
def fields(sect):
'''
Each section represents a resource and contains a list with its properties
This generator parses the list and yields the key value pairs representing the properties
Some properties have attributes, expressed in markdown as a nested list. If present these attributes
Are yielded as well, else None is yielded
'''
#import logging; logging.debug(repr(sect))
#Pull all the list elements until the next header. This accommodates multiple lists in a section
sect_body_items = results_until(sect.xml_select(u'following-sibling::*'), u'self::h1|self::h2|self::h3')
#field_list = [ U(li) for ul in sect.xml_select(u'following-sibling::ul') for li in ul.xml_select(u'./li') ]
field_list = [ li for elem in sect_body_items for li in elem.xml_select(u'li') ]
def parse_pair(pair):
'''
Parse each list item into a property pair
'''
if pair.strip():
matched = REL_PAT.match(pair)
if not matched:
raise ValueError(_(u'Syntax error in relationship expression: {0}'.format(field)))
prop = matched.group(1).strip()
val = matched.group(2).strip()
#prop, val = [ part.strip() for part in U(li.xml_select(u'string(.)')).split(u':', 1) ]
#import logging; logging.debug(repr((prop, val)))
return prop, val
return None, None
#Go through each list item
for li in field_list:
#Is there a nested list, which expresses attributes on a property
if li.xml_select(u'ul'):
main = ''.join([ U(node) for node in results_until(li.xml_select(u'node()'), u'self::ul') ])
#main = li.xml_select(u'string(ul/preceding-sibling::node())')
prop, val = parse_pair(main)
subfield_list = [ sli for sli in li.xml_select(u'ul/li') ]
subfield_dict = dict([ parse_pair(U(pair)) for pair in subfield_list ])
if None in subfield_dict: del subfield_dict[None]
yield prop, val, subfield_dict
#Just a regular, unadorned property
else:
prop, val = parse_pair(U(li))
if prop: yield prop, val, None
#Gather the document-level metadata
base = propbase = rbase = None
for prop, val, subfield_dict in fields(docheader):
if prop == '@base':
base = val
if prop == '@property-base':
propbase = val
if prop == '@resource-base':
rbase = val
if not propbase: propbase = base
if not rbase: rbase = base
#Go through the resources expressed in remaining sections
for sect in sections:
#The header can take one of 4 forms: "ResourceID" "ResourceID [ResourceType]" "[ResourceType]" or "[]"
#The 3rd form is for an anonymous resource with specified type and the 4th an anonymous resource with unspecified type
matched = RESOURCE_PAT.match(U(sect))
if not matched:
raise ValueError(_(u'Syntax error in resource header: {0}'.format(U(sect))))
rid = matched.group(1)
rtype = matched.group(3)
if rid:
rid = I(iri.absolutize(rid, base))
if not rid:
rid = I(iri.absolutize(output.generate_resource(), base))
if rtype:
rtype = I(iri.absolutize(rtype, base))
#Resource type might be set by syntax config
if not rtype:
rtype = syntaxtypemap.get(sect.xml_local)
if rtype:
output.add(rid, RDFTYPE, rtype)
#Add the property
for prop, val, subfield_dict in fields(sect):
attrs = subfield_dict or {}
fullprop = I(iri.absolutize(prop, propbase))
resinfo = AB_RESOURCE_PAT.match(val)
if resinfo:
val = resinfo.group(1)
valtype = resinfo.group(3)
if not val: val = output.generate_resource()
if valtype: attrs[RDFTYPE] = valtype
if fullprop in interp:
val = interp[fullprop](val, rid=rid, fullprop=fullprop, base=base, model=output)
if val is not None: output.add(rid, fullprop, val)
else:
output.add(rid, fullprop, val, attrs)
return base
def from_markdown(md, dest, stem, index):
h = markdown.markdown(md.decode('utf-8'))
doc = html.markup_fragment(inputsource.text(h.encode('utf-8')))
#print doc.xml_encode()
output = TURTLE_TOP_TEMPLATE
graphoutput = TURTLE_TOP_TEMPLATE
#The top section contains all the test metadata
top_section_fields = results_until(doc.xml_select(u'//h1[1]/following-sibling::h2'), u'self::h1')
#Note: Top level fields are rendered into dicts, others are turned into lists of tuples
#fields = dict(map(lambda y: [part.strip() for part in y.split(u':', 1)], U(top_section_fields).split(u'\n')))
fields = {}
#subsections = top_section_fields[0].xml_select(u'following-sibling::h2')
fields["relatedtests"] = ""
for s in top_section_fields:
prop = U(s).strip()
value = s.xml_select(u'./following-sibling::p|following-sibling::ul')
if value:
#Encoding to XML makes it a string again, so turn it back to Unicode
#fields[property] = value[0].xml_encode().decode('utf-8')
#Use XPath to strip markup
if value[0].xml_local == u'ul':
fields[prop] = [ li.xml_select(u'string(.)') for li in value[0].xml_select(u'./li') ]
if prop == "relatedtests":
issues_links = ""
for i in fields[prop]:
issues_links += TESTS_LINKS_TEMPLATE.format(i) + ", "
if issues_links.endswith(', '):
issues_links = issues_links[:-2]
fields[prop] = issues_links
elif prop == "issues":
issues_links = ""
for i in fields[prop]:
tid = time.time() + random.randint(1,1000)
tid = str(tid).replace('.', '')
json = JSON2BASE64ENCODE
json = json.replace('%ID', tid)
json = json.replace('%F1VAL%', i)
json = json.replace('"%F2VAL%"', '')
json = json.replace('"%F3VAL%"', '')
link = BASE64_LINK
link = link.replace('%BASE64%', base64.b64encode(json))
link = link.replace('%LABEL%', i)
issues_links += link + ", "
if issues_links.endswith(', '):
issues_links = issues_links[:-2]
fields["issueslinks"] = issues_links
elif prop == "status":
issues_links = ""
for i in fields[prop]:
tid = time.time() + random.randint(1,1000)
tid = str(tid).replace('.', '')
json = JSON2BASE64ENCODE
json = json.replace('%ID', tid)
json = json.replace('"%F1VAL%"', '')
json = json.replace('"%F2VAL%"', '')
json = json.replace('%F3VAL%', i)
link = BASE64_LINK
link = link.replace('%BASE64%', base64.b64encode(json))
link = link.replace('%LABEL%', i)
issues_links += link + ", "
if issues_links.endswith(', '):
issues_links = issues_links[:-2]
fields["statuslinks"] = issues_links
else:
fields[prop] = value[0].xml_select(u'string(.)')
# if prop.lower() == "description":
# fields["label"] = value[0].xml_select(u'string(.)')
if prop.lower() == "id":
fields["test-id"] = value[0].xml_select(u'string(.)')
# add fileroot to exhibit json
fields['fileroot'] = stem
testinfo = fields.copy()
#for k, v in testinfo.items():
#testinfo.append(shred_if_needed(k, v))
# testinfo[k] = shred_if_needed(k, v)
index.append(testinfo)
#output += TURTLE_RESOURCE_TEMPLATE.format(rid=TEST_ID_BASE + fields[u'id'])
#output += u' a bf:TestCase ;\n'
#for k, v in fields.items():
# if matches_uri_syntax(v):
# output += u' bf:{k} <{v}> ;\n'.format(k=k, v=v)
# else:
# output += u' bf:{k} "{v}" ;\n'.format(k=k, v=v)
#output = output.rsplit(u';\n', 1)[0]
#output += u'.\n'
sections = doc.xml_select(u'//h1[not(.="Header")]')
for sect in sections:
rtype = U(sect)
#fields = U(sect.xml_select(u'following-sibling::p'))
field_list = sect.xml_select(u'following-sibling::ul')[0]
fields = []
#fields = map(lambda y: [part.strip() for part in y.split(u':', 1)], fields.split(u'\n'))
for li in field_list.xml_select(u'./li'):
if U(li).strip():
prop, val = [ part.strip() for part in U(li.xml_select(u'string(.)')).split(u':', 1) ]
fields.append((prop, val))
subsections = results_until(sect.xml_select(u'./following-sibling::h2'), u'self::h1')
for s in subsections:
prop = U(s).strip()
value = s.xml_select(u'./following-sibling::p|following-sibling::ul')
#print (prop, value)
if value:
#Encoding to XML makes it a string again, so turn it back to Unicode
#fields[property] = value[0].xml_encode().decode('utf-8')
#Use XPath to strip markup
if value[0].xml_local == u'ul':
fields.append((prop, [ U(li.xml_select(u'string(.)')) for li in value[0].xml_select(u'./li') ]))
else:
fields.append((prop, U(value[0].xml_select(u'string(.)'))))
#desc = U(sect.xml_select(u'following-sibling::h2[.="Description"]/following-sibling::p'))
#note = U(sect.xml_select(u'following-sibling::h2[.="Note"]/following-sibling::p'))
to_remove = []
for k, v in fields:
if k == u'id':
rid = absolutize(v, TEST_ID_BASE)
to_remove.append((k, v))
for pair in to_remove:
fields.remove(pair)
atype = None
output += TURTLE_RESOURCE_TEMPLATE.format(rid=rid)
if ' ' in rtype:
#Derive the actual annotation type
rtype, atype = rtype.split()
output += u' a bf:{atype}, bf:{rtype} ;\n'.format(rtype=rtype, atype=atype)
else:
output += u' a bf:{rtype} ;\n'.format(rtype=rtype)
#print fields
for k, v in fields:
if matches_uri_syntax(v):
output += u' bf:{k} <{v}> ;\n'.format(k=k, v=v)
elif v.startswith("["):
output += u' bf:{k} {v} ;\n'.format(k=k, v=v)
else:
output += u' bf:{k} "{v}" ;\n'.format(k=k, v=v)
output = output.rsplit(u';\n', 1)[0]
output += u'.\n'
# Create RDf that only includes resource-resource relations
# for graphical display
graphoutput += TURTLE_RESOURCE_TEMPLATE.format(rid=rid)
#print fields
for k, v in fields:
if matches_uri_syntax(v):
graphoutput += u' bf:{k} <{v}> ;\n'.format(k=k, v=v)
elif v.startswith("["):
graphoutput += u' bf:{k} {v} ;\n'.format(k=k, v=v)
graphoutput = graphoutput.rsplit(u';\n', 1)[0]
graphoutput += u'.\n'
turtlefname = os.path.join(dest, stem + os.path.extsep + 'ttl')
turtlef = open(turtlefname, 'w')
turtlef.write(output.encode('utf-8'))
turtlef.close()
eyecandyfname = os.path.join(dest, stem + "-eyecandy" + os.path.extsep + 'ttl')
eyecandyf = open(eyecandyfname, 'w')
eyecandyf.write(graphoutput.encode('utf-8'))
eyecandyf.close()
#Copying testinfo because from_turtle will modify it in place
return output, testinfo.copy()
def from_markdown(md, output, encoding='utf-8', config=None):
"""
Translate the Versa Markdown syntax into Versa model relationships
md -- markdown source text
output -- Versa model to take the output relationship
encoding -- character encoding (defaults to UTF-8)
No return value
"""
#Set up configuration to interpret the conventions for the Markdown
config = config or {}
#This mapping takes syntactical elements such as the various header levels in Markdown and associates a resource type with the specified resources
syntaxtypemap = {}
if config.get('autotype-h1'):
syntaxtypemap[u'h1'] = config.get('autotype-h1')
if config.get('autotype-h2'):
syntaxtypemap[u'h2'] = config.get('autotype-h2')
if config.get('autotype-h3'):
syntaxtypemap[u'h3'] = config.get('autotype-h3')
interp = config.get('interpretations', {})
#Map the interpretation IRIs to functions to do the data prep
for prop, interp_key in interp.iteritems():
if interp_key in PREP_METHODS:
interp[prop] = PREP_METHODS[interp_key]
else:
#just use the identity, i.e. no-op
interp[prop] = lambda x, **kwargs: x
#Parse the Markdown
h = markdown.markdown(md.decode(encoding))
doc = html.markup_fragment(inputsource.text(h.encode('utf-8')))
#Each section contains one resource description, but the special one named @docheader contains info to help interpret the rest
top_section_fields = results_until(
doc.xml_select(u'//h1[1]/following-sibling::h2'), u'self::h1')
docheader = doc.xml_select(u'//h1[.="@docheader"]')[0]
sections = doc.xml_select(u'//h1|h2|h3[not(.="@docheader")]')
def fields(sect):
'''
Each section represents a resource and contains a list with its properties
This generator parses the list and yields the key value pairs representing the properties
Some properties have attributes, expressed in markdown as a nested list. If present these attributes
Are yielded as well, else None is yielded
'''
#import logging; logging.debug(repr(sect))
#Pull all the list elements until the next header. This accommodates multiple lists in a section
sect_body_items = results_until(
sect.xml_select(u'following-sibling::*'),
u'self::h1|self::h2|self::h3')
#field_list = [ U(li) for ul in sect.xml_select(u'following-sibling::ul') for li in ul.xml_select(u'./li') ]
field_list = [
li for elem in sect_body_items for li in elem.xml_select(u'li')
]
def parse_pair(pair):
'''
Parse each list item into a property pair
'''
if pair.strip():
matched = REL_PAT.match(pair)
if not matched:
raise ValueError(
_(u'Syntax error in relationship expression: {0}'.
format(field)))
prop = matched.group(1).strip()
val = matched.group(2).strip()
#prop, val = [ part.strip() for part in U(li.xml_select(u'string(.)')).split(u':', 1) ]
#import logging; logging.debug(repr((prop, val)))
return prop, val
return None, None
#Go through each list item
for li in field_list:
#Is there a nested list, which expresses attributes on a property
if li.xml_select(u'ul'):
main = ''.join([
U(node) for node in results_until(li.xml_select(u'node()'),
u'self::ul')
])
#main = li.xml_select(u'string(ul/preceding-sibling::node())')
prop, val = parse_pair(main)
subfield_list = [sli for sli in li.xml_select(u'ul/li')]
subfield_dict = dict(
[parse_pair(U(pair)) for pair in subfield_list])
if None in subfield_dict: del subfield_dict[None]
yield prop, val, subfield_dict
#Just a regular, unadorned property
else:
prop, val = parse_pair(U(li))
if prop: yield prop, val, None
#Gather the document-level metadata
base = propbase = rbase = None
for prop, val, subfield_dict in fields(docheader):
if prop == '@base':
base = val
if prop == '@property-base':
propbase = val
if prop == '@resource-base':
rbase = val
if not propbase: propbase = base
if not rbase: rbase = base
#Go through the resources expressed in remaining sections
for sect in sections:
#The header can take one of 4 forms: "ResourceID" "ResourceID [ResourceType]" "[ResourceType]" or "[]"
#The 3rd form is for an anonymous resource with specified type and the 4th an anonymous resource with unspecified type
matched = RESOURCE_PAT.match(U(sect))
if not matched:
raise ValueError(
_(u'Syntax error in resource header: {0}'.format(U(sect))))
rid = matched.group(1)
rtype = matched.group(3)
if rid:
rid = I(iri.absolutize(rid, base))
if not rid:
rid = I(iri.absolutize(output.generate_resource(), base))
if rtype:
rtype = I(iri.absolutize(rtype, base))
#Resource type might be set by syntax config
if not rtype:
rtype = syntaxtypemap.get(sect.xml_local)
if rtype:
output.add(rid, RDFTYPE, rtype)
#Add the property
for prop, val, subfield_dict in fields(sect):
attrs = subfield_dict or {}
fullprop = I(iri.absolutize(prop, propbase))
resinfo = AB_RESOURCE_PAT.match(val)
if resinfo:
val = resinfo.group(1)
valtype = resinfo.group(3)
if not val: val = output.generate_resource()
if valtype: attrs[RDFTYPE] = valtype
if fullprop in interp:
val = interp[fullprop](val,
rid=rid,
fullprop=fullprop,
base=base,
model=output)
if val is not None: output.add(rid, fullprop, val)
else:
output.add(rid, fullprop, val, attrs)
return base