def eval_get_goldstandard(self, basefile):
goldstandard = Graph()
goldstandard_rdf = util.relpath(
os.path.dirname(__file__) + "/../res/eut/goldstandard.n3")
goldstandard.load(goldstandard_rdf, format="n3")
pred = util.ns['ir'] + 'isRelevantFor'
res = {}
store = TripleStore(self.config.storetype,
self.config.storelocation,
self.config.storerepository)
sq_templ = """PREFIX eurlex:<http://lagen.nu/eurlex#>
SELECT ?party ?casenum ?celexnum WHERE {
<%s> eurlex:party ?party ;
eurlex:casenum ?casenum ;
eurlex:celexnum ?celexnum .
}"""
self.log.debug(
"Loading gold standard relevance judgments for %s" % basefile)
for article in self._articles(basefile):
res[article] = []
for o in goldstandard.objects(URIRef(article), URIRef(pred)):
res[article].append(str(o))
# Make sure the case exists and is the case we're looking for
sq = sq_templ % str(o)
parties = store.select(sq, format="python")
if parties:
pass
# self.log.debug(" %s: %s (%s)" %
# (parties[0]['celexnum'],
# parties[0]['casenum'],
# " v ".join([x['party'] for x in parties])))
else:
self.log.warning("Can't find %s in triple store!" % o)
self.log.debug(" Gold standard for %s: %s relevant docs" %
(article, len(res[article])))
res[article].sort()
return res
def eval_get_goldstandard(self, basefile):
goldstandard = Graph()
goldstandard_rdf = util.relpath(
os.path.dirname(__file__) + "/../res/eut/goldstandard.n3")
goldstandard.load(goldstandard_rdf, format="n3")
pred = util.ns['ir'] + 'isRelevantFor'
res = {}
store = TripleStore(self.config.storetype, self.config.storelocation,
self.config.storerepository)
sq_templ = """PREFIX eurlex:<http://lagen.nu/eurlex#>
SELECT ?party ?casenum ?celexnum WHERE {
<%s> eurlex:party ?party ;
eurlex:casenum ?casenum ;
eurlex:celexnum ?celexnum .
}"""
self.log.debug("Loading gold standard relevance judgments for %s" %
basefile)
for article in self._articles(basefile):
res[article] = []
for o in goldstandard.objects(URIRef(article), URIRef(pred)):
res[article].append(str(o))
# Make sure the case exists and is the case we're looking for
sq = sq_templ % str(o)
parties = store.select(sq, format="python")
if parties:
pass
# self.log.debug(" %s: %s (%s)" %
# (parties[0]['celexnum'],
# parties[0]['casenum'],
# " v ".join([x['party'] for x in parties])))
else:
self.log.warning("Can't find %s in triple store!" % o)
self.log.debug(" Gold standard for %s: %s relevant docs" %
(article, len(res[article])))
res[article].sort()
return res
def _sameas(self):
sameas = Graph()
sameas_rdf = util.relpath(
os.path.dirname(__file__) + "/../res/eut/sameas.n3")
sameas.load(sameas_rdf, format="n3")
return sameas
def construct_annotations(self, uri):
start = time()
keyword = basefile.split("/", 1)[1]
# note: infile is e.g. parsed/K/Konsument.xht2, but outfile is generated/Konsument.html
infile = util.relpath(self._xmlFileName(basefile))
outfile = util.relpath(self._htmlFileName(keyword))
# Use SPARQL queries to create a rdf graph (to be used by the
# xslt transform) containing enough information about all
# cases using this term, as well as the wiki authored
# dct:description for this term.
# For proper SPARQL escaping, we need to change å to \u00E5
# etc (there probably is a neater way of doing this).
esckeyword = ''
for c in keyword:
if ord(c) > 127:
esckeyword += '\\u%04X' % ord(c)
else:
esckeyword += c
escuri = keyword_to_uri(esckeyword)
sq = """
PREFIX dct:<http://purl.org/dc/terms/>
PREFIX rdfs:<http://www.w3.org/2000/01/rdf-schema#>
PREFIX rinfo:<http://rinfo.lagrummet.se/taxo/2007/09/rinfo/pub#>
SELECT ?desc
WHERE { ?uri dct:description ?desc . ?uri rdfs:label "%s"@sv }
""" % esckeyword
wikidesc = self._store_select(sq)
log.debug('%s: Selected %s descriptions (%.3f sec)',
basefile, len(wikidesc), time() - start)
sq = """
PREFIX dct:<http://purl.org/dc/terms/>
PREFIX rdfs:<http://www.w3.org/2000/01/rdf-schema#>
PREFIX rinfo:<http://rinfo.lagrummet.se/taxo/2007/09/rinfo/pub#>
SELECT DISTINCT ?uri ?label
WHERE {
GRAPH <urn:x-local:sfs> {
{ ?uri dct:subject <%s> .
?baseuri dct:title ?label .
?uri dct:isPartOf ?x . ?x dct:isPartOf ?baseuri
}
UNION {
?uri dct:subject <%s> .
?baseuri dct:title ?label .
?uri dct:isPartOf ?x . ?x dct:isPartOf ?y . ?y dct:isPartOf ?baseuri
}
UNION {
?uri dct:subject <%s> .
?baseuri dct:title ?label .
?uri dct:isPartOf ?x . ?x dct:isPartOf ?y . ?x dct:isPartOf ?z . ?z dct:isPartOf ?baseuri
}
UNION {
?uri dct:subject <%s> .
?baseuri dct:title ?label .
?uri dct:isPartOf ?x . ?x dct:isPartOf ?y . ?x dct:isPartOf ?z . ?z dct:isPartOf ?w . ?w dct:isPartOf ?baseuri
}
}
}
""" % (escuri, escuri, escuri, escuri)
# print sq
legaldefinitioner = self._store_select(sq)
log.debug('%s: Selected %d legal definitions (%.3f sec)',
basefile, len(legaldefinitioner), time() - start)
sq = """
PREFIX dct:<http://purl.org/dc/terms/>
PREFIX rdfs:<http://www.w3.org/2000/01/rdf-schema#>
PREFIX rinfo:<http://rinfo.lagrummet.se/taxo/2007/09/rinfo/pub#>
PREFIX rinfoex:<http://lagen.nu/terms#>
SELECT ?uri ?id ?desc
WHERE {
{
GRAPH <urn:x-local:dv> {
{
?uri dct:description ?desc .
?uri dct:identifier ?id .
?uri dct:subject <%s>
}
UNION {
?uri dct:description ?desc .
?uri dct:identifier ?id .
?uri dct:subject "%s"@sv
}
}
} UNION {
GRAPH <urn:x-local:arn> {
?uri dct:description ?desc .
?uri rinfoex:arendenummer ?id .
?uri dct:subject "%s"@sv
}
}
}
""" % (escuri, esckeyword, esckeyword)
# Maybe we should handle <urn:x-local:arn> triples here as well?
rattsfall = self._store_select(sq)
log.debug('%s: Selected %d legal cases (%.3f sec)',
basefile, len(rattsfall), time() - start)
root_node = etree.Element("rdf:RDF")
for prefix in util.ns:
etree._namespace_map[util.ns[prefix]] = prefix
root_node.set("xmlns:" + prefix, util.ns[prefix])
main_node = etree.SubElement(root_node, "rdf:Description")
main_node.set("rdf:about", keyword_to_uri(keyword))
for d in wikidesc:
desc_node = etree.SubElement(main_node, "dct:description")
xhtmlstr = "<xht2:div xmlns:xht2='%s'>%s</xht2:div>" % (
util.ns['xht2'], d['desc'])
xhtmlstr = xhtmlstr.replace(
' xmlns="http://www.w3.org/2002/06/xhtml2/"', '')
desc_node.append(etree.fromstring(xhtmlstr.encode('utf-8')))
for r in rattsfall:
subject_node = etree.SubElement(main_node, "dct:subject")
rattsfall_node = etree.SubElement(subject_node, "rdf:Description")
rattsfall_node.set("rdf:about", r['uri'])
id_node = etree.SubElement(rattsfall_node, "dct:identifier")
id_node.text = r['id']
desc_node = etree.SubElement(rattsfall_node, "dct:description")
desc_node.text = r['desc']
for l in legaldefinitioner:
subject_node = etree.SubElement(main_node, "rinfoex:isDefinedBy")
rattsfall_node = etree.SubElement(subject_node, "rdf:Description")
rattsfall_node.set("rdf:about", l['uri'])
id_node = etree.SubElement(rattsfall_node, "rdfs:label")
# id_node.text = "%s %s" % (l['uri'].split("#")[1], l['label'])
id_node.text = self.sfsmgr.display_title(l['uri'])
# FIXME: construct graph
return graph
def _sameas(self):
sameas = Graph()
sameas_rdf = util.relpath(
os.path.dirname(__file__) + "/../res/eut/sameas.n3")
sameas.load(sameas_rdf, format="n3")
return sameas
