def get_step_triples(update_graph, uri, step_def, debug=True):
"""
Return the triples matching the criteria defined in the current step of an update
:param update_graph: the update graph
:param uri: uri of the entity currently the subject of an update
:param step_def: step definition from update_def
:return: Graph containing one or more triples that match the criteria for the step
"""
from rdflib import Graph
from vivopump import vivo_query, add_qualifiers, make_rdf_term
if 'qualifier' not in step_def['object']:
g = update_graph.triples((uri, step_def['predicate']['ref'], None))
else:
q = 'select (?' + step_def['object']['name'] +' as ?o) where { <' + str(uri) + '> <' + \
str(step_def['predicate']['ref']) + '> ?' + step_def['object']['name'] + ' .\n' + \
add_qualifiers([step_def]) + ' }\n'
if debug:
print "\nStep Triples Query\n", q
result_set = vivo_query(q)
g = Graph()
for binding in result_set['results']['bindings']:
o = make_rdf_term(binding['o'])
g.add((uri, step_def['predicate']['ref'], o))
if debug:
print "Step Triples", len(g)
return g
def generate_productlist(config, data):
g = Graph('IOMemory', BNode())
for product_data in data['products']:
product = URIRef(link(product_data['link'])+"#subject")
add_lang_names(g, product, product_data['names'], rel=[SCHEMA.name, DCTERMS.title])
g.add((product, RDF.type, SCHEMA.CreativeWork))
return g
def test_spatial_wrong_geometries(self):
g = Graph()
dataset = URIRef('http://example.org/datasets/1')
g.add((dataset, RDF.type, DCAT.Dataset))
spatial_uri = URIRef('http://geonames/Newark')
g.add((dataset, DCT.spatial, spatial_uri))
g.add((spatial_uri, RDF.type, DCT.Location))
g.add((spatial_uri,
LOCN.geometry,
Literal('Not GeoJSON', datatype=GEOJSON_IMT)))
g.add((spatial_uri,
LOCN.geometry,
Literal('Not WKT', datatype=GSP.wktLiteral)))
p = RDFParser(profiles=['euro_dcat_ap'])
p.g = g
datasets = [d for d in p.datasets()]
extras = self._extras(datasets[0])
assert_true('spatial' not in extras)
def test_cax_dw():
"""
Test cax-dw rule for OWL 2 RL.
If::
T(?c1, owl:disjointWith, ?c2)
T(?x, rdf:type, ?c1)
T(?x, rdf:type, ?c2)
then::
false
"""
g = Graph()
x = T.x
c1 = T.c1
c2 = T.c2
g.add((c1, OWL.disjointWith, c2))
g.add((x, RDF.type, c1))
g.add((x, RDF.type, c2))
owlrl.DeductiveClosure(owlrl.OWLRL_Semantics).expand(g)
result = next(g.objects(predicate=DAML.error))
expected = Literal(
'Disjoint classes http://test.org/c1 and http://test.org/c2'
' have a common individual http://test.org/x'
)
assert expected == result
def generate_artistlist(config, data):
g = Graph('IOMemory', BNode())
for artist_data in data['artists']:
artist = URIRef(link(artist_data['link'])+"#subject")
add_lang_names(g, artist, artist_data['names'], rel=[FOAF.name])
g.add((artist, RDF.type, SCHEMA.MusicGroup))
return g
def test_spatial_one_dct_spatial_instance_no_uri(self):
g = Graph()
dataset = URIRef('http://example.org/datasets/1')
g.add((dataset, RDF.type, DCAT.Dataset))
location_ref = BNode()
g.add((dataset, DCT.spatial, location_ref))
g.add((location_ref, RDF.type, DCT.Location))
g.add((location_ref,
LOCN.geometry,
Literal('{"type": "Point", "coordinates": [23, 45]}', datatype=GEOJSON_IMT)))
g.add((location_ref, SKOS.prefLabel, Literal('Newark')))
p = RDFParser(profiles=['euro_dcat_ap'])
p.g = g
datasets = [d for d in p.datasets()]
extras = self._extras(datasets[0])
assert_true('spatial_uri' not in extras)
eq_(extras['spatial_text'], 'Newark')
eq_(extras['spatial'], '{"type": "Point", "coordinates": [23, 45]}')
def test_spatial_both_geojson_and_wkt(self):
g = Graph()
dataset = URIRef('http://example.org/datasets/1')
g.add((dataset, RDF.type, DCAT.Dataset))
spatial_uri = URIRef('http://geonames/Newark')
g.add((dataset, DCT.spatial, spatial_uri))
g.add((spatial_uri, RDF.type, DCT.Location))
g.add((spatial_uri,
LOCN.geometry,
Literal('{"type": "Point", "coordinates": [23, 45]}', datatype=GEOJSON_IMT)))
g.add((spatial_uri,
LOCN.geometry,
Literal('POINT (67 89)', datatype=GSP.wktLiteral)))
p = RDFParser(profiles=['euro_dcat_ap'])
p.g = g
datasets = [d for d in p.datasets()]
extras = self._extras(datasets[0])
eq_(extras['spatial'], '{"type": "Point", "coordinates": [23, 45]}')
def testGraphAdd(self):
g1 = Graph()
g2 = Graph()
tarek = self.tarek
# michel = self.michel
bob = self.bob
likes = self.likes
# hates = self.hates
pizza = self.pizza
cheese = self.cheese
g1.add((tarek, likes, pizza))
g2.add((bob, likes, cheese))
g3 = g1 + g2
self.assertEquals(len(g3), 2)
self.assertEquals((tarek, likes, pizza) in g3, True)
self.assertEquals((tarek, likes, cheese) in g3, False)
self.assertEquals((bob, likes, cheese) in g3, True)
g1 += g2
self.assertEquals(len(g1), 2)
self.assertEquals((tarek, likes, pizza) in g1, True)
self.assertEquals((tarek, likes, cheese) in g1, False)
self.assertEquals((bob, likes, cheese) in g1, True)
def test_distribution_format_format_normalized(self):
g = Graph()
dataset1 = URIRef("http://example.org/datasets/1")
g.add((dataset1, RDF.type, DCAT.Dataset))
distribution1_1 = URIRef("http://example.org/datasets/1/ds/1")
g.add((distribution1_1, RDF.type, DCAT.Distribution))
g.add((distribution1_1, DCAT.mediaType, Literal('text/csv')))
g.add((distribution1_1, DCT['format'], Literal('Comma Separated Values')))
g.add((dataset1, DCAT.distribution, distribution1_1))
p = RDFParser(profiles=['euro_dcat_ap'])
p.g = g
datasets = [d for d in p.datasets()]
resource = datasets[0]['resources'][0]
if toolkit.check_ckan_version(min_version='2.3'):
eq_(resource['format'], u'CSV')
eq_(resource['mimetype'], u'text/csv')
else:
eq_(resource['format'], u'Comma Separated Values')
def testConjunction(self):
self.addStuffInMultipleContexts()
triple = (self.pizza, self.likes, self.pizza)
# add to context 1
graph = Graph(self.graph.store, self.c1)
graph.add(triple)
self.assertEquals(len(self.graph), len(graph))
def testSub(self):
g1 = self.graph
g2 = Graph(store=g1.store)
tarek = self.tarek
# michel = self.michel
bob = self.bob
likes = self.likes
# hates = self.hates
pizza = self.pizza
cheese = self.cheese
g1.add((tarek, likes, pizza))
g1.add((bob, likes, cheese))
g2.add((bob, likes, cheese))
g3 = g1 - g2
self.assertEquals(len(g3), 1)
self.assertEquals((tarek, likes, pizza) in g3, True)
self.assertEquals((tarek, likes, cheese) in g3, False)
self.assertEquals((bob, likes, cheese) in g3, False)
g1 -= g2
self.assertEquals(len(g1), 1)
self.assertEquals((tarek, likes, pizza) in g1, True)
self.assertEquals((tarek, likes, cheese) in g1, False)
self.assertEquals((bob, likes, cheese) in g1, False)
def content():
# Initialize RDF graph
payload = Graph()
# Bind the required namespaces
payload.bind('ssn', SSN)
payload.bind('dc', DCTERMS)
payload.bind('foaf', FOAF)
doc = URIRef('')
this = URIRef('#this')
# Add triples
payload.add((doc, RDF.type, FOAF.Document))
payload.add((doc, FOAF.primaryTopic, this))
payload.add((this, RDF.type, URIRef(r.type)))
payload.add((this, DCTERMS.title, Literal(r.name)))
payload.add((this, DCTERMS.description, Literal(r.description)))
for l in r.linked_resources:
payload.add((this, SIOC.container_of, URIRef(l)))
# Serialize the resulting graph
return payload.serialize(format='turtle')
def annotateConfidence(target, un, con, com):
# thisAnnotation id is the full string, eg:
# http://chartex.org/user/jjon/annotation/dc9d7cbdd0ebefb583e46fc2b79bc8cedde34d68
# the last element being a hash (hashlib.sha1(oa:hastarget).hexdigest()) of this full string:
# http://chartex.org/graphid/Person_11139might_bePerson_11339 (this triple is actually in there, why?, weird!
target = re.sub('[<>]', '', target)
thisAnnotationURI = "http://chartex.org/user/%s/annotation/%s" % (un, sha1(target).hexdigest())
confidence = Literal(con) if con == 'nochange' else Literal(con,datatype=XSD.decimal)
#TODO: if no change, create no confidenceMetric triple for the annotation OR insert original decimal value
if (int(annotationExists('<' + thisAnnotationURI + '>')) > 0):
return ("You've already annotated this statement: %s \nPresumably you could make a separate annotation with a different username. If you start doing that, you should keep track of all your usernames. When we have authentication and session logic, this won't be necessary.\n\nAnnotation triples:\n" % (target,), getSingleConfidenceAnnotation('<' + thisAnnotationURI + '>', 'application/rdf+xml'))
else:
thisann = URIRef(thisAnnotationURI)
g = Graph()
bodyNode = BNode()
triples = [
(thisann, RDF.type, oa.Annotation),
(thisann, oa.hasTarget, URIRef(target)),
(thisann, oa.hasBody, bodyNode),
(bodyNode, chartex.suggestedConfidenceMetric, confidence),
(bodyNode, chartex.userComment, Literal(com))
]
for t in triples: g.add(t)
r = requests.post(
AGVM_VC_REPO + "/statements",
headers={'Content-Type': 'text/turtle'},
data=g.serialize(format='turtle'),
auth=AG_AUTH
)
return (g.serialize(format='pretty-xml'), r.__dict__)
def test_load_from_model(self):
"""Can we round trip through a RDF model"""
model = Graph()
path = '/root/42BW9AAXX/C1-38/Project_12345/'
filename = '12345_AAATTT_L003_R1_001.fastq.gz'
seq = sequences.parse_fastq(path, filename)
seq.save_to_model(model)
seq_id = 'file://'+path+filename
seqNode = URIRef(seq_id)
libNode = URIRef('http://localhost/library/12345')
model.add((seqNode, libraryOntology['library'], libNode))
seq2 = sequences.SequenceFile.load_from_model(model, seq_id)
self.assertEqual(seq.flowcell, seq2.flowcell)
self.assertEqual(seq.flowcell, '42BW9AAXX')
self.assertEqual(seq.filetype, seq2.filetype)
self.assertEqual(seq2.filetype, 'split_fastq')
self.assertEqual(seq.lane, seq2.lane)
self.assertEqual(seq2.lane, '3')
self.assertEqual(seq.read, seq2.read)
self.assertEqual(seq2.read, 1)
self.assertEqual(seq.project, seq2.project)
self.assertEqual(seq2.project, '12345')
self.assertEqual(seq.index, seq2.index)
self.assertEqual(seq2.index, 'AAATTT')
self.assertEqual(seq.split, seq2.split)
self.assertEqual(seq2.split, '001')
self.assertEqual(seq.cycle, seq2.cycle)
self.assertEqual(seq.pf, seq2.pf)
self.assertEqual(seq2.libraryNode, libNode)
self.assertEqual(seq.path, seq2.path)
def rdf_get(self, departments):
us_dept = URIRef('https://en.wikipedia.org/wiki/List_of_federal_agencies_in_the_United_States')
g = Graph()
for dept in departments:
this_dept = URIRef('http://127.0.0.1:5000/departments/{0}'.format(urllib.quote(dept)))
g.add((this_dept, RDF.type, us_dept,))
return g.serialize(format='n3')
def test_post_bad_type_to_base(self):
graph = Graph()
created = BNode()
graph.add((self.my_ktbs.uri, KTBS.contains, created))
graph.add((created, RDF.type, RDFS.Resource))
with assert_raises(RdfRestException):
self.my_ktbs.post_graph(graph)
def test_post_no_type_to_base(self):
graph = Graph()
created = BNode()
graph.add((self.my_ktbs.uri, RDFS.seeAlso, created))
graph.add((created, RDF.type, KTBS.hasModel)) # in correct NS
with assert_raises(RdfRestException):
self.my_ktbs.post_graph(graph)
def prepareSellResponse(urlSend):
g = Graph()
enviaments = Graph()
enviaments.parse(open('../data/enviaments'), format='turtle')
urlProducts = []
for item in enviaments.objects(subject=urlSend, predicate=ECSDI.Envia):
for product in enviaments.objects(subject=item, predicate=ECSDI.productos):
urlProducts.append(product)
products = Graph()
products.parse(open('../data/productes'), format='turtle')
for item in urlProducts:
marca = products.value(subject=item, predicate=ECSDI.Marca)
modelo = products.value(subject=item, predicate=ECSDI.Modelo)
nombre = products.value(subject=item, predicate=ECSDI.Nombre)
precio = products.value(subject=item, predicate=ECSDI.Precio)
g.add((item, RDF.type, ECSDI.Producto))
g.add((item, ECSDI.Marca, Literal(marca, datatype=XSD.string)))
g.add((item, ECSDI.Modelo, Literal(modelo, datatype=XSD.string)))
g.add((item, ECSDI.Precio, Literal(precio, datatype=XSD.float)))
g.add((item, ECSDI.Nombre, Literal(nombre, datatype=XSD.string)))
return g
def test_post_no_type_to_root(self):
graph = Graph()
created = BNode()
graph.add((self.my_ktbs.uri, RDFS.seeAlso, created))
graph.add((created, RDF.type, KTBS.Base))
with assert_raises(RdfRestException):
self.my_ktbs.post_graph(graph)
def link_municipalities(municipalities: Graph, warsa_endpoint: str, arpa_endpoint: str):
"""
Link to Warsa municipalities.
"""
warsa_munics = r.helpers.read_graph_from_sparql(warsa_endpoint,
graph_name='http://ldf.fi/warsa/places/municipalities')
log.info('Using Warsa municipalities with {n} triples'.format(n=len(warsa_munics)))
municipalities.remove((None, SCHEMA_CAS.current_municipality, None))
municipalities.remove((None, SCHEMA_CAS.wartime_municipality, None))
pnr_arpa = Arpa(arpa_endpoint)
municipalities = link_to_pnr(municipalities, SCHEMA_CAS.current_municipality, None, pnr_arpa)['graph']
for casualty_munic in list(municipalities[:RDF.type:SCHEMA_CAS.Municipality]):
labels = list(municipalities[casualty_munic:SKOS.prefLabel:])
warsa_match = link_warsa_municipality(warsa_munics, labels)
if warsa_match:
municipalities.add((casualty_munic, SCHEMA_CAS.wartime_municipality, warsa_match))
preferred = warsa_match or \
municipalities.value(casualty_munic, SCHEMA_CAS.current_municipality) or \
casualty_munic
if preferred:
municipalities.add((casualty_munic, SCHEMA_CAS.preferred_municipality, preferred))
return municipalities
def test_rdflib_to_graphtool():
try:
from graph_tool import util as gt_util
except ImportError:
raise SkipTest("couldn't find graph_tool")
from rdflib.extras.external_graph_libs import rdflib_to_graphtool
g = Graph()
a, b, l = URIRef('a'), URIRef('b'), Literal('l')
p, q = URIRef('p'), URIRef('q')
edges = [(a, p, b), (a, q, b), (b, p, a), (b, p, l)]
for t in edges:
g.add(t)
mdg = rdflib_to_graphtool(g)
assert len(list(mdg.edges())) == 4
vpterm = mdg.vertex_properties['term']
va = gt_util.find_vertex(mdg, vpterm, a)[0]
vb = gt_util.find_vertex(mdg, vpterm, b)[0]
vl = gt_util.find_vertex(mdg, vpterm, l)[0]
assert (va, vb) in [(e.source(), e.target()) for e in list(mdg.edges())]
epterm = mdg.edge_properties['term']
assert len(list(gt_util.find_edge(mdg, epterm, p))) == 3
assert len(list(gt_util.find_edge(mdg, epterm, q))) == 1
mdg = rdflib_to_graphtool(
g,
e_prop_names=[text_type('name')],
transform_p=lambda s, p, o: {text_type('name'): text_type(p)})
epterm = mdg.edge_properties['name']
assert len(list(gt_util.find_edge(mdg, epterm, text_type(p)))) == 3
assert len(list(gt_util.find_edge(mdg, epterm, text_type(q)))) == 1
def test_distribution_format_format_normalized(self):
g = Graph()
dataset1 = URIRef("http://example.org/datasets/1")
g.add((dataset1, RDF.type, DCAT.Dataset))
distribution1_1 = URIRef("http://example.org/datasets/1/ds/1")
g.add((distribution1_1, RDF.type, DCAT.Distribution))
g.add((distribution1_1, DCAT.mediaType, Literal("text/csv")))
g.add((distribution1_1, DCT["format"], Literal("Comma Separated Values")))
g.add((dataset1, DCAT.distribution, distribution1_1))
p = RDFParser(profiles=["euro_dcat_ap"])
p.g = g
datasets = [d for d in p.datasets()]
resource = datasets[0]["resources"][0]
if toolkit.check_ckan_version(min_version="2.3"):
eq_(resource["format"], u"CSV")
eq_(resource["mimetype"], u"text/csv")
else:
eq_(resource["format"], u"Comma Separated Values")
def directory_search_message(type):
"""
Busca en el servicio de registro mandando un
mensaje de request con una accion Seach del servicio de directorio
Podria ser mas adecuado mandar un query-ref y una descripcion de registo
con variables
:param type:
:return:
"""
global mss_cnt
logger.info('Buscamos en el servicio de registro')
gmess = Graph()
gmess.bind('foaf', FOAF)
gmess.bind('dso', DSO)
reg_obj = agn[AgentePersonal.name + '-search']
gmess.add((reg_obj, RDF.type, DSO.Search))
gmess.add((reg_obj, DSO.AgentType, type))
msg = build_message(gmess, perf=ACL.request,
sender=AgentePersonal.uri,
receiver=DirectoryAgent.uri,
content=reg_obj,
msgcnt=mss_cnt)
gr = send_message(msg, DirectoryAgent.address)
mss_cnt += 1
logger.info('Recibimos informacion del agente')
return gr
def browser_retorna():
global compres
if request.method == 'GET':
logger.info('Mostramos las compras realizadas')
count, counts = get_all_sells()
return render_template('retorna.html', compres=compres, count=count, sizes=counts)
else:
logger.info('Empezamos el proceso de devolucion')
sells_checked = []
for item in request.form.getlist("checkbox"):
sells_checked.append(compres[int(item)][0])
logger.info("Creando la peticion de compra")
g = Graph()
content = ECSDI['Peticion_retorno_' + str(get_count())]
g.add((content, RDF.type, ECSDI.Peticion_retorno))
for item in sells_checked:
g.add((content, ECSDI.CompraRetornada, URIRef(item)))
seller = get_agent_info(agn.SellerAgent, DirectoryAgent, UserPersonalAgent, get_count())
send_message(
build_message(g, perf=ACL.request, sender=UserPersonalAgent.uri, receiver=seller.uri,
msgcnt=get_count(),
content=content), seller.address)
return render_template('endRetorna.html')
def infoagent_search_message(addr, ragn_uri):
"""
Envia una accion a un agente de informacion
"""
global mss_cnt
logger.info('Hacemos una peticion al servicio de informacion')
gmess = Graph()
# Supuesta ontologia de acciones de agentes de informacion
IAA = Namespace('IAActions')
gmess.bind('foaf', FOAF)
gmess.bind('iaa', IAA)
reg_obj = agn[AgentePersonal.name + '-info-search']
gmess.add((reg_obj, RDF.type, IAA.Search))
msg = build_message(gmess, perf=ACL.request,
sender=AgentePersonal.uri,
receiver=ragn_uri,
msgcnt=mss_cnt)
gr = send_message(msg, addr)
mss_cnt += 1
logger.info('Recibimos respuesta a la peticion al servicio de informacion')
return gr
def compareCommonTerms(terms,buff):
global currentGraph, previousGraph, showDiffs
currentGraph.bind("schema","http://schema.org/")
currentGraph.bind("dc","http://purl.org/dc/terms/")
currentGraph.bind("rdf",RDF)
currentGraph.bind("rdfs",RDFS)
changedCount = 0
for t in sorted(terms):
c = Graph()
p = Graph()
for trip in currentGraph.triples((URIRef(t),None,None)):
c.add(trip)
for trip in previousGraph.triples((URIRef(t),None,None)):
p.add(trip)
newg = c - p
dropg = p - c
if len(newg) > 0 or len(dropg) > 0:
changedCount += 1
buff.write( " Changed term: %s\n" % t)
if showDiffs:
for s,p,o in newg.triples((None,None,None)):
buff.write( " New: %s %s %s\n" % (str(s),currentGraph.qname(p),o))
for s,p,o in dropg.triples((None,None,None)):
buff.write( " Dropped: %s %s %s\n" % (str(s),currentGraph.qname(p),o))
return changedCount
def _construct(compiler, sources, query=None):
dataset = ConjunctiveGraph()
if not isinstance(sources, list):
sources = [sources]
for sourcedfn in sources:
source = sourcedfn['source']
graph = dataset.get_context(URIRef(sourcedfn.get('dataset') or source))
if isinstance(source, (dict, list)):
context_data = sourcedfn['context']
if not isinstance(context_data, list):
context_data = compiler.load_json(context_data )['@context']
context_data = [compiler.load_json(ctx)['@context']
if isinstance(ctx, unicode) else ctx
for ctx in context_data]
to_rdf(source, graph, context_data=context_data)
elif isinstance(source, Graph):
graph += source
else:
graph += compiler.cached_rdf(source)
if not query:
return graph
with compiler.path(query).open() as fp:
result = dataset.query(fp.read())
g = Graph()
for spo in result:
g.add(spo)
return g
def convert_graveyards(self, uri, graph: Graph):
"""
Convert graveyard information into URIs. Check if the created URI exists in cemeteries ontology.
"""
mun = graph.value(uri, SCHEMA_CAS.municipality_of_burial)
if not mun or str(mun) == 'X':
return graph
gy = graph.value(uri, SCHEMA_CAS.graveyard_number)
gy_uri = '{base}h{mun}'.format(base=CEMETERIES, mun=str(mun).split('/k')[-1])
# mun_uri = '{base}k{mun}'.format(base=KUNNAT, mun=mun)
if gy:
gy_uri += '_{gy}'.format(gy=gy)
else:
return graph
gy_uri = URIRef(GRAVEYARD_MAPPING.get(gy_uri, gy_uri))
if gy_uri not in self.cemeteries:
logging.info('Cemetery {gy} not found for person {p}'.format(gy=gy_uri, p=uri))
return graph
if str(gy).isnumeric():
graph.add((uri, SCHEMA_WARSA.buried_in, gy_uri))
graph.remove((uri, SCHEMA_CAS.graveyard_number, gy))
return graph
def notify(uri):
g = Graph()
g.add((URIRef(uri), RDF.type, URIRef('http://www.bbc.co.uk/search/schema/ContentItem')))
g.add((URIRef(uri), URIRef('http://www.bbc.co.uk/search/schema/url'), Literal(uri)))
g.parse(uri)
return g.serialize(format='nt').decode('utf-8')
def process_search():
# Asumimos que hay una accion de busqueda que puede tener
# diferentes parametros en funcion de si se busca un tipo de agente
# o un agente concreto por URI o nombre
# Podriamos resolver esto tambien con un query-ref y enviar un objeto de
# registro con variables y constantes
# Solo consideramos cuando Search indica el tipo de agente
# Buscamos una coincidencia exacta
# Retornamos el primero de la lista de posibilidades
logger.info('Peticion de busqueda')
agn_type = gm.value(subject=content, predicate=DSO.AgentType)
rsearch = dsgraph.triples((None, DSO.AgentType, agn_type))
if rsearch is not None:
agn_uri = rsearch.next()[0]
agn_add = dsgraph.value(subject=agn_uri, predicate=DSO.Address)
gr = Graph()
gr.bind('dso', DSO)
rsp_obj = agn['Directory-response']
gr.add((rsp_obj, DSO.Address, agn_add))
gr.add((rsp_obj, DSO.Uri, agn_uri))
return build_message(gr,
ACL.inform,
sender=DirectoryAgent.uri,
msgcnt=mss_cnt,
receiver=agn_uri,
content=rsp_obj)
else:
# Si no encontramos nada retornamos un inform sin contenido
return build_message(Graph(),
ACL.inform,
sender=DirectoryAgent.uri,
msgcnt=mss_cnt)
class ShaclSerializer(object):
def __init__(self, target_file, shapes_list, namespaces_dict=None, string_return=False,
instantiation_property_str=RDF_TYPE_STR, wikidata_annotation=False):
self._target_file = target_file
self._namespaces_dict = namespaces_dict if namespaces_dict is not None else {}
self._shapes_list = shapes_list
self._string_return = string_return
self._instantiation_property_str = instantiation_property_str
self._wikidata_annotation = wikidata_annotation
self._g_shapes = Graph()
# self._uri_dict = {}
def serialize_shapes(self):
self._add_namespaces()
self._add_shapes()
return self._produce_output()
#################### NAMESPACES
def _add_namespaces(self):
self._add_param_namespaces()
self._add_shacl_namespace_if_needed()
def _add_param_namespaces(self):
for a_namespace, a_prefix in self._namespaces_dict.items():
self._add_namespace(prefix=a_prefix,
namespace_str=a_namespace)
def _add_namespace(self, prefix, namespace_str):
self._g_shapes.bind(prefix=prefix,
namespace=Namespace(namespace_str))
def _add_shacl_namespace_if_needed(self):
if _SHACL_NAMESPACE in self._namespaces_dict: # shacl already included
return
curr_prefixes = self._namespaces_dict.values()
for a_prefix in _SHACL_PRIORITY_PREFIXES: # trying default prefixes
if a_prefix not in curr_prefixes:
self._add_shacl_namespace(a_prefix)
return
counter = 1 # going for random prefixes, no defs. available
candidate_pref = _SHACL_PRIORITY_PREFIXES[0] + str(counter)
while candidate_pref in curr_prefixes:
counter += 1
candidate_pref = _SHACL_PRIORITY_PREFIXES[0] + str(counter)
self._add_shacl_namespace(candidate_pref)
def _add_shacl_namespace(self, shacl_prefix):
self._add_namespace(prefix=shacl_prefix,
namespace_str=_SHACL_NAMESPACE)
self._namespaces_dict[_SHACL_NAMESPACE] = shacl_prefix
#################### SHAPES
def _add_shapes(self):
for a_shape in self._shapes_list:
self._add_shape(a_shape)
def _add_shape(self, shape):
r_shape_uri = self._generate_shape_uri(shape_name=shape.name)
self._add_shape_uri(r_shape_uri=r_shape_uri)
self._add_target_class(r_shape_uri=r_shape_uri,
shape=shape)
self._add_shape_constraints(shape=shape,
r_shape_uri=r_shape_uri)
def _add_target_class(self, shape, r_shape_uri):
if shape.class_uri is not None:
self._add_triple(r_shape_uri,
_R_SHACL_TARGET_CLASS_PROP,
URIRef(shape.class_uri)) # TODO check if this is always an abs. URI, not sure
def _add_shape_constraints(self, shape, r_shape_uri):
for a_statement in shape.yield_statements():
self._add_constraint(statement=a_statement,
r_shape_uri=r_shape_uri)
def _is_instantiation_property(self, str_property):
return str_property == self._instantiation_property_str
def _add_constraint(self, statement, r_shape_uri):
if self._is_instantiation_property(statement.st_property):
self._add_instantiation_constraint(statement=statement,
r_shape_uri=r_shape_uri)
else:
self._add_regular_constraint(statement=statement,
r_shape_uri=r_shape_uri)
def _add_exactly_one_cardinality(self, r_constraint_node):
self._add_min_occurs(r_constraint_node=r_constraint_node,
min_occurs=1)
self._add_max_occurs(r_constraint_node=r_constraint_node,
max_occurs=1)
def _add_in_instance(self, r_constraint_node, statement):
target_node = self._generate_r_uri_for_str_uri(statement.st_type)
list_seed_node = self._generate_bnode()
self._add_triple(r_constraint_node, _R_SHACL_IN_PROP, list_seed_node)
self._add_triple(list_seed_node, RDF.first, target_node)
self._add_triple(list_seed_node, RDF.rest, RDF.nil)
def _add_instantiation_constraint(self, statement, r_shape_uri):
r_constraint_node = self._generate_bnode()
self._add_bnode_property(r_shape_uri=r_shape_uri,
r_constraint_node=r_constraint_node)
self._add_path(statement=statement,
r_constraint_node=r_constraint_node)
self._add_exactly_one_cardinality(r_constraint_node=r_constraint_node)
self._add_in_instance(statement=statement,
r_constraint_node=r_constraint_node)
def _add_regular_constraint(self, statement, r_shape_uri):
r_constraint_node = self._generate_bnode()
self._add_bnode_property(r_shape_uri=r_shape_uri,
r_constraint_node=r_constraint_node)
self._add_path(statement=statement,
r_constraint_node=r_constraint_node)
self._add_node_type(statement=statement,
r_constraint_node=r_constraint_node)
self._add_cardinality(statement=statement,
r_constraint_node=r_constraint_node)
def _add_path(self, statement, r_constraint_node):
r_property_uri = self._generate_r_uri_for_str_uri(statement.st_property)
self._add_triple(r_constraint_node, _R_SHACL_PATH_PROP, r_property_uri)
def _generate_r_uri_for_str_uri(self, property_str):
if property_str.startswith("<") and property_str.endswith(">"):
return URIRef(property_str[1:-1])
elif property_str.startswith("http://"):
return URIRef(property_str)
raise ValueError("Check here:", property_str)
def _is_a_shape(self, target_type):
return target_type.startswith(STARTING_CHAR_FOR_SHAPE_NAME)
def _is_literal(self, target_type):
return target_type == LANG_STRING_TYPE or target_type.startswith(XSD_NAMESPACE)
def _is_macro(self, target_type):
return target_type in _MACRO_MAPPING
def _add_dataType_literal(self, r_constraint_node, target_type):
if target_type == LANG_STRING_TYPE:
type_node = _R_LANG_STRING
elif target_type.endswith("integer"):
type_node = XSD.integer
elif target_type.endswith("float"):
type_node = XSD.float
elif target_type.endswith("string"):
type_node = XSD.string
else:
raise ValueError("Check here:" + target_type)
self._add_triple(r_constraint_node,
_R_SHACL_DATATYPE_PROP,
type_node)
def _add_node_shape(self, r_constraint_node, target_type):
self._add_triple(r_constraint_node,
_R_SHACL_NODE_PROP,
self._generate_shape_uri(shape_name=target_type))
def _add_nodeKind_macro(self, r_constraint_node, target_type):
type_node = _MACRO_MAPPING[target_type]
if type_node is not None:
self._add_triple(r_constraint_node,
_R_SHACL_NODEKIND_PROP,
type_node)
def _add_node_type(self, statement, r_constraint_node):
# sh:dataType for literal types
# sh:nodeKind for IRI or similar macros.
# sh:node for a shape
if self._is_literal(statement.st_type):
self._add_dataType_literal(r_constraint_node=r_constraint_node,
target_type=statement.st_type)
elif self._is_macro(statement.st_type):
self._add_nodeKind_macro(r_constraint_node=r_constraint_node,
target_type=statement.st_type)
elif self._is_a_shape(statement.st_type):
self._add_node_shape(r_constraint_node=r_constraint_node,
target_type=statement.st_type)
else:
raise ValueError("Check here: ")
def _min_occurs_from_cardinality(self, cardinality):
if cardinality in [KLEENE_CLOSURE, OPT_CARDINALITY]:
return None
elif cardinality == POSITIVE_CLOSURE:
return 1
else:
return cardinality
def _max_occurs_from_cardinality(self, cardinality):
if cardinality in [KLEENE_CLOSURE, POSITIVE_CLOSURE]:
return None
elif cardinality == OPT_CARDINALITY:
return 1
else:
return cardinality
def _generate_r_literal(self, value, l_type):
return Literal(value, datatype=self._map_rdflib_datatype(l_type))
def _map_rdflib_datatype(self, l_type):
if l_type == _INTEGER:
return XSD.integer
elif l_type == _STRING:
return XSD.string
else:
raise ValueError("Check here: " + l_type)
def _add_min_occurs(self, r_constraint_node, min_occurs):
self._add_triple(r_constraint_node,
_R_SHACL_MIN_COUNT_PROP,
self._generate_r_literal(value=min_occurs,
l_type=_INTEGER))
def _add_max_occurs(self, r_constraint_node, max_occurs):
self._add_triple(r_constraint_node,
_R_SHACL_MAX_COUNT_PROP,
self._generate_r_literal(value=max_occurs,
l_type=_INTEGER))
def _add_cardinality(self, statement, r_constraint_node):
min_occurs = self._min_occurs_from_cardinality(statement.cardinality)
max_occurs = self._max_occurs_from_cardinality(statement.cardinality)
if min_occurs is not None:
self._add_min_occurs(r_constraint_node=r_constraint_node,
min_occurs=min_occurs)
if max_occurs is not None:
self._add_max_occurs(r_constraint_node=r_constraint_node,
max_occurs=max_occurs)
def _add_bnode_property(self, r_shape_uri, r_constraint_node):
self._add_triple(r_shape_uri, _R_SHACL_PROPERTY_PROP, r_constraint_node)
self._add_triple(r_constraint_node, RDF.type, _R_SHACL_PROPERTY_SHAPE_URI)
def _generate_shape_uri(self, shape_name):
if shape_name.startswith(_EXPECTED_SHAPE_BEGINING) and shape_name.endswith(_EXPECTED_SHAPE_ENDING):
return URIRef(shape_name[2:-1]) # Excluding "@<" and ">
raise ValueError("Check here:", shape_name)
def _add_shape_uri(self, r_shape_uri):
self._add_triple(r_shape_uri, RDF.type, _R_SHACL_SHAPE_URI)
def _add_triple(self, s, p, o):
self._g_shapes.add((s, p, o))
@staticmethod
def _generate_bnode():
return BNode()
#################### OUTPUT
def _produce_output(self):
if self._wikidata_annotation:
return self._produce_wikidata_annotation_output()
# destination = None if self._string_return else self._target_file
if self._string_return:
return self._g_shapes.serialize(format="turtle").decode("utf-8")
else:
self._g_shapes.serialize(destination=self._target_file, format="turtle")
def _produce_wikidata_annotation_output(self):
result = self._g_shapes.serialize(format="turtle").decode("utf-8")
result = wikidata_annotation(raw_input=result,
string_return=self._string_return,
out_file=self._target_file,
format=TURTLE_FORMAT,
rdfs_comments=False)
if self._string_return:
return result
def prep_annotation_file(self, basefile):
goldstandard = self.eval_get_goldstandard(basefile)
baseline_set = self.eval_get_ranked_set_baseline(basefile)
baseline_map = self.eval_calc_map(
self.eval_calc_aps(baseline_set, goldstandard))
print("Baseline MAP %f" % baseline_map)
self.log.info("Calculating ranked set (pagerank, unrestricted)")
pagerank_set = self.eval_get_ranked_set(basefile,
"pagerank",
age_compensation=False,
restrict_cited=False)
pagerank_map = self.eval_calc_map(
self.eval_calc_aps(pagerank_set, goldstandard))
print("Pagerank MAP %f" % pagerank_map)
sets = [{
'label': 'Baseline',
'data': baseline_set
}, {
'label': 'Gold standard',
'data': goldstandard
}, {
'label': 'PageRank',
'data': pagerank_set
}]
g = Graph()
g.bind('dcterms', self.ns['dcterms'])
g.bind('rinfoex', self.ns['rinfoex'])
XHT_NS = "{http://www.w3.org/1999/xhtml}"
tree = ET.parse(self.parsed_path(basefile))
els = tree.findall("//" + XHT_NS + "div")
articles = []
for el in els:
if 'typeof' in el.attrib and el.attrib[
'typeof'] == "eurlex:Article":
article = str(el.attrib['id'][1:])
articles.append(article)
for article in articles:
self.log.info("Results for article %s" % article)
articlenode = URIRef("http://lagen.nu/ext/celex/12008E%03d" %
int(article))
resultsetcollectionnode = BNode()
g.add((resultsetcollectionnode, RDF.type, RDF.List))
rc = Collection(g, resultsetcollectionnode)
g.add((articlenode, DCTERMS["relation"], resultsetcollectionnode))
for s in sets:
resultsetnode = BNode()
listnode = BNode()
rc.append(resultsetnode)
g.add((resultsetnode, RDF.type,
RINFOEX["RelatedContentCollection"]))
g.add((resultsetnode, DCTERMS["title"], Literal(s["label"])))
g.add((resultsetnode, DCTERMS["hasPart"], listnode))
c = Collection(g, listnode)
g.add((listnode, RDF.type, RDF.List))
if article in s['data']:
print((" Set %s" % s['label']))
for result in s['data'][article]:
resnode = BNode()
g.add((resnode, DCTERMS["references"],
Literal(result[0])))
g.add((resnode, DCTERMS["title"], Literal(result[1])))
c.append(resnode)
print((" %s" % result[1]))
return self.graph_to_annotation_file(g, basefile)
def analyze_baseline_queries(self, analyzed_articles, num_of_keyterms=5):
basefile = "tfeu"
# Helper from http://effbot.org/zone/element-lib.htm
def flatten(elem, include_tail=0):
text = elem.text or ""
for e in elem:
text += flatten(e, 1)
if include_tail and elem.tail:
text += elem.tail
return text
# step 1: Create a temporary whoosh index in order to find out
# the most significant words for each article
#ana = analysis.StandardAnalyzer()
ana = analysis.StemmingAnalyzer()
# vectorformat = formats.Frequency(ana)
schema = fields.Schema(article=fields.ID(unique=True),
content=fields.TEXT(analyzer=ana, stored=True))
st = RamStorage()
tmpidx = st.create_index(schema)
w = tmpidx.writer()
XHT_NS = "{http://www.w3.org/1999/xhtml}"
tree = ET.parse(self.parsed_path(basefile))
els = tree.findall("//" + XHT_NS + "div")
articles = []
for el in els:
if 'typeof' in el.attrib and el.attrib[
'typeof'] == "eurlex:Article":
text = util.normalize_space(flatten(el))
article = str(el.attrib['about'])
articles.append(article)
w.update_document(article=article, content=text)
w.commit()
self.log.info("Indexed %d articles" % len(articles))
# Step 2: Open the large whoosh index containing the text of
# all cases. Then, for each article, use the 5 most distinctive terms
# (filtering away numbers) to create a query against that index
tempsearch = tmpidx.searcher()
g = Graph()
g.bind('celex', 'http://lagen.nu/ext/celex/')
g.bind('ir', 'http://lagen.nu/informationretrieval#')
IR = Namespace('http://lagen.nu/informationretrieval#')
# celex:12008E264 ir:keyterm "blahonga"@en.
outfile = self.generic_path("keyterms", "analyzed", ".tex")
util.ensure_dir(outfile)
fp = open(outfile, "w")
fp.write("""
\\begin{tabular}{r|%s}
\\hline
\\textbf{Art.} & \\multicolumn{%s}{l}{\\textbf{Terms}} \\\\
\\hline
""" % ("l" * num_of_keyterms, num_of_keyterms))
for article in analyzed_articles:
fp.write(str(int(article.split("E")[1])))
r = tempsearch.search(query.Term("article", article))
terms = r.key_terms("content", numterms=num_of_keyterms + 1)
terms = [t[0] for t in terms
if not t[0].isdigit()][:num_of_keyterms]
for term in terms:
fp.write(" & " + term)
g.add((URIRef(article), IR["keyterm"], Literal(term,
lang="en")))
self.log.debug("Article %s:%r" % (article, terms))
fp.write("\\\\\n")
fp.write("""
\\hline
\\end{tabular}
""")
fp.close()
outfile = self.generic_path("keyterms", "analyzed", ".n3")
util.ensure_dir(outfile)
fp = open(outfile, "w")
fp.write(g.serialize(format="n3"))
fp.close()
?x owl:sameAs ?sameas
}
"""
resultID = g2.query(spar2)
for itemencyc in resultencyc:
for itemid in resultID:
if itemencyc[0].encode('utf-8') == itemid[0].encode('utf-8'):
g.add((URIRef(itemencyc[0].encode('utf-8')), owl.sameAs,
(URIRef(itemid[2]))))
if 'NA' in itemid[1]:
gnd = 'NA'
g.add((URIRef(itemencyc[0].encode('utf-8')),
gndo.gndIdentifier, (Literal(gnd))))
elif itemid[1].rsplit('/', 1)[1] == '-':
gnd = 'NA'
g.add((URIRef(itemencyc[0].encode('utf-8')),
gndo.gndIdentifier, (Literal(gnd))))
else:
**Task 06: Modifying RDF(s)**
"""
!pip install rdflib
github_storage = "https://raw.githubusercontent.com/FacultadInformatica-LinkedData/Curso2020-2021/master/Assignment3"
"""Leemos el fichero RDF de la forma que lo hemos venido haciendo"""
from rdflib import Graph, Namespace, Literal
from rdflib.namespace import RDF, RDFS
g = Graph()
g.namespace_manager.bind('ns', Namespace("http://somewhere#"), override=False)
g.namespace_manager.bing('vcard', Namespace("http://www.w3.org/2001/vcard-rdf/3.0#"), override=False)
g.parse(github_storage+"/resources/example5.rdf", format="xml")
"""Create a new class named Researcher"""
g.add((ns.Researcher, RDF.type, RDFS.Class))
for s, p, o in g:
print(s,p,o)
"""**TASK 6.1: Create a new class named "University"**
**TASK 6.2: Add "Researcher" as a subclass of "Person"**
**TASK 6.3: Create a new individual of Researcher named "Jane Smith"**
**TASK 6.4: Add to the individual JaneSmith the fullName, given and family names**
**TASK 6.5: Add UPM as the university where John Smith works**
"""
import json
import sys
sc = Namespace("http://iiif.io/api/presentation/2#")
oa = Namespace("http://www.w3.org/ns/oa#")
jw = Namespace("http://localhost:8000/jabberwocky/")
def StrLiteral(s):
"""String literal convenience method."""
return Literal(s, datatype=XSD.string)
# Build RDF
g = Graph()
g.add((jw.manifest, RDF.type, sc.Manifest))
# Simple descriptive information
g.add((jw.manifest, RDFS.label, StrLiteral("Jabberwocky")))
g.add((jw.manifest, DC.description,
StrLiteral("A bad edition of wonderful nonsense.")))
# Label/value pairs
author = BNode()
g.add((jw.manifest, sc.metadataLabels, author))
g.add((author, RDFS.label, StrLiteral("Author")))
g.add((author, RDF.value, StrLiteral("Lewis Carroll")))
# Get JSON-LD object in PyLD form
jld = pyld_json_from_rdflib_graph(g)
# Frame and compact...
framed = jsonld.compact(
class PelagiosGraph():
""" Uses the PelagiosData object to
to make Pelagios compliant open annotations
from opencontext_py.apps.ldata.pelagios.graph import PelagiosGraph
pelagios = PelagiosGraph()
pelagios.project_uuids = ['3']
pelagios.make_graph()
pelagios.g.serialize(format='turtle')
from opencontext_py.apps.ldata.pelagios.graph import PelagiosGraph
pelagios = PelagiosGraph()
pelagios.do_web_annotations = True
pelagios.get_graph()
pelagios.g.serialize(format='turtle')
"""
NAMESPACES = {
'cnt': 'http://www.w3.org/2011/content#',
'dcterms': 'http://purl.org/dc/terms/',
'foaf': 'http://xmlns.com/foaf/0.1/',
'oa': 'http://www.w3.org/ns/oa#',
'pelagios': 'http://pelagios.github.io/vocab/terms#',
'relations': 'http://pelagios.github.io/vocab/relations#',
# 'xsd': 'http://www.w3.org/2001/XMLSchema',
'oc-gen': 'http://opencontext.org/vocabularies/oc-general/'
}
def __init__(self):
self.data_obj = PelagiosData()
self.project_uuids = []
self.do_web_annotations = False
self.test_limit = None
self.g = None
self.prep_graph()
self.base_uri = settings.CANONICAL_HOST + '/pelagios/data/'
self.annoations_uri_part = '#annotations/'
self.anno_index = 0
self.request = False
self.refresh_cache = False
self.print_caching = False
self.cache_ok = True
self.cache_timeout = None # None means forever
def get_graph(self):
""" get graph """
s_rdf = SerizializeRDF()
if self.do_web_annotations:
key = 'pelagios-web'
else:
key = self.make_cache_key('pelagios', '-'.join(self.project_uuids))
if self.refresh_cache:
g = None
else:
g = s_rdf.get_graph_from_file(key)
if g is None:
# make graph based on data from the database
self.make_graph()
s_rdf.save_serialized_graph(key, self.g)
else:
# we have graph data!
self.g = g
def prep_graph(self):
""" prepares a graph for Pelagios """
self.g = Graph()
for prefix, ns_uri in self.NAMESPACES.items():
ns = Namespace(ns_uri)
self.g.bind(prefix, ns)
def make_graph(self):
associated_uris = []
if self.do_web_annotations:
self.data_obj = PelagiosGazetteerAnnotations()
self.data_obj.make_annotations()
else:
self.get_db_data()
if len(self.data_obj.oa_items) > 0:
for uuid, oa_item in self.data_obj.oa_items.items():
if oa_item.is_valid and len(oa_item.gazetteer_uris) > 0:
# only make annotations if the item is valid and actually has
# gazetteer uris
self.make_add_triple(
oa_item.uri, RDF.type,
self.make_full_uri('pelagios', 'AnnotatedThing'))
self.make_add_triple(
oa_item.uri, self.make_full_uri('dcterms', 'title'),
None, oa_item.title)
"""
# commented out, don't need it
self.make_add_triple(oa_item.uri,
self.make_full_uri('foaf', 'homepage'),
oa_item.uri)
"""
if isinstance(oa_item.description, str):
# add description
self.make_add_triple(
oa_item.uri,
self.make_full_uri('dcterms', 'description'), None,
oa_item.description)
if self.check_valid_uri(oa_item.depiction):
# in response to issue https://github.com/ekansa/open-context-py/issues/480
self.make_add_triple(
oa_item.uri,
self.make_full_uri('foaf',
'depiction'), oa_item.depiction)
if isinstance(oa_item.temporal, str):
# temporal metadata, as string of ISO 8601 '/' seperated intervals
self.make_add_triple(
oa_item.uri,
self.make_full_uri('dcterms', 'temporal'), None,
oa_item.temporal)
# add language assertion
self.make_add_triple(
oa_item.uri, self.make_full_uri('dcterms', 'language'),
None, settings.LANGUAGE_CODE)
# add assertion about part of a project
if oa_item.uri != oa_item.project_uri:
self.make_add_triple(
oa_item.uri,
self.make_full_uri('dcterms', 'isPartOf'),
oa_item.project_uri)
# now add gazetteer annotations to the item
if oa_item.contained_project_uuid is not None:
base_anno_uri = self.base_uri + oa_item.contained_project_uuid
elif oa_item.manifest is not None:
base_anno_uri = self.base_uri + oa_item.manifest.project_uuid
else:
base_anno_uri = self.base_uri + 'web'
base_anno_uri += self.annoations_uri_part
self.make_gazetteer_annotations(oa_item.uri,
oa_item.gazetteer_uris,
base_anno_uri)
# now add related annotations
if len(oa_item.associated) > 0:
for ass in oa_item.associated:
self.make_add_triple(
ass['uri'], RDF.type,
self.make_full_uri('pelagios',
'AnnotatedThing'))
self.make_add_triple(
ass['uri'],
self.make_full_uri('dcterms', 'title'), None,
ass['title'])
"""
# commented out, don't need it
self.make_add_triple(ass['uri'],
self.make_full_uri('foaf', 'homepage'),
ass['uri'])
"""
if self.check_valid_uri(ass['depiction']):
# in response to issue https://github.com/ekansa/open-context-py/issues/480
self.make_add_triple(
ass['uri'],
self.make_full_uri('foaf', 'depiction'),
ass['depiction'])
self.make_add_triple(
ass['uri'],
self.make_full_uri('dcterms', 'description'),
None, ass['description'])
if isinstance(ass['temporal'], str):
# temporal metadata, as string of ISO 8601 '/' seperated intervals
self.make_add_triple(
ass['uri'],
self.make_full_uri('dcterms', 'temporal'),
None, ass['temporal'])
self.make_add_triple(
ass['uri'],
self.make_full_uri('dcterms', 'language'),
None, settings.LANGUAGE_CODE)
self.make_add_triple(
ass['uri'],
self.make_full_uri('dcterms', 'relation'),
oa_item.uri)
self.make_gazetteer_annotations(
ass['uri'], oa_item.gazetteer_uris,
base_anno_uri)
def check_valid_uri(self, uri):
""" checks to see if a uri is valid """
valid = False
if isinstance(uri, str):
uri_out = False
try:
uri_test = URIRef(uri)
uri_out = uri_test.n3()
except:
# some sort of error thrown, so not valid
valid = False
if isinstance(uri_out, str):
valid = True
return valid
def make_gazetteer_annotations(self, target_uri, gazetteer_uris,
base_anno_uri):
""" makes annotations for a target_uri from from a list of gazetteer_uris """
for gaz_uri in gazetteer_uris:
self.anno_index += 1
anno_uri = base_anno_uri + str(self.anno_index)
self.make_add_triple(anno_uri, RDF.type,
self.make_full_uri('oa', 'Annotation'))
self.make_add_triple(anno_uri,
self.make_full_uri('oa',
'hasTarget'), target_uri)
self.make_add_triple(anno_uri, self.make_full_uri('oa', 'hasBody'),
gaz_uri)
def make_add_triple(self,
sub_uri,
pred_uri,
obj_uri=None,
obj_literal=None):
""" makes a triple and adds it to the graph """
act_s = URIRef(sub_uri)
act_p = URIRef(pred_uri)
if obj_literal is not None:
act_o = Literal(obj_literal)
else:
act_o = URIRef(obj_uri)
self.g.add((act_s, act_p, act_o))
def make_full_uri(self, prefix, value):
""" makes a full uri for a prefix and value """
if prefix in self.NAMESPACES:
output = self.NAMESPACES[prefix] + value
else:
output = prefix + ':' + value
return output
def get_db_data(self):
""" gets gazetteer related items, then
populates these with manifest objects and context
paths (for subjects)
"""
key = self.make_cache_key('pelagios', '-'.join(self.project_uuids))
if self.refresh_cache:
# we forcing a refresh of the cache, not us of cached data
cache_data_obj = None
else:
# check to see if we have a cached version
cache_data_obj = self.get_cache_object(key)
if cache_data_obj is None:
self.data_obj.project_uuids = self.project_uuids
self.data_obj.test_limit = self.test_limit
self.data_obj.get_prep_ocitems_rel_gazetteer()
# now cache the data
self.save_cache_object(key, self.data_obj)
else:
# use the cached data for the data object
self.data_obj = cache_data_obj
def make_cache_key(self, prefix, identifier):
""" makes a valid OK cache key """
return str(prefix) + "-" + str(identifier)
def make_cache_key_hash(self, prefix, identifier):
""" makes a valid OK cache key """
hash_obj = hashlib.sha1()
concat_string = str(prefix) + "-" + str(identifier)
hash_obj.update(concat_string.encode('utf-8'))
return hash_obj.hexdigest()
def get_cache_object(self, key):
""" gets a cached reddis object """
try:
cache = caches['default']
obj = cache.get(key)
if self.print_caching:
print('Cache checked: ' + key)
except:
obj = None
if self.print_caching:
print('Cache Fail checked: ' + key)
return obj
def save_cache_object(self, key, obj):
""" saves a cached reddis object """
try:
cache = caches['default']
cache.set(key, obj, self.cache_timeout)
ok = True
if self.print_caching:
print('Cache Saved: ' + key)
except:
self.cache_ok = False
ok = False
if self.print_caching:
print('Failed to cache: ' + key)
return ok
?x <http://purl.org/spar/pro/author> ?author.
?author skos:prefLabel ?name
}
"""
results = g.query(spar)
for ubitem in results:
print ubitem
name = ubitem[3].encode('utf-8') #name of the author
for i in range(0, len(gndname)):
if name == gndname[i][0]:
graphout.add((URIRef(ubitem[0]), RDF.type, edm.ProvidedCHO))
graphout.add((URIRef(ubitem[0]), dc.creator, Literal(name)))
graphout.add(
(URIRef(ubitem[0]), dc.identifier, Literal(ubitem[1])))
graphout.add(
(URIRef(ubitem[0]), gndo.gndIdentifier, URIRef(gndname[i][1])))
graphout.add(
(URIRef(ubitem[0]), dc.description, Literal((ubitem[4]))))
graphout.add((URIRef(ubitem[0]), dc.title, Literal((ubitem[5]))))
graphout.serialize(destination='cm-authors-context-GND-uni-02.rdf',
format="turtle")
def cercaHotels():
resultat = Graph()
resultat.bind('via', VIA)
contingut = Graph()
obj_restriccions = gm.value(subject=content,
predicate=DEM.Restriccions_hotels)
ciutat = gm.value(subject=obj_restriccions, predicate=DEM.Ciutat)
dataI = gm.value(subject=obj_restriccions, predicate=DEM.Data_inici)
dataF = gm.value(subject=obj_restriccions, predicate=DEM.Data_final)
NumPer = gm.value(subject=obj_restriccions, predicate=DEM.NumPersones)
preuAllot = gm.value(subject=obj_restriccions, predicate=DEM.Preu)
data_ini = stringToDate(dataI)
data_fi = stringToDate(dataF)
contingut.parse('../../Ontologies/Viatge-RDF.owl', format='xml')
res = contingut.query(f"""
SELECT ?nm ?c ?ta ?preu ?sit ?t ?testn ?ppn
WHERE {{
?a rdf:type via:Allotjament .
?a via:Nom ?nm .
?a via:Capacitat ?c .
?a via:TipusAllotjament ?ta .
?a via:val ?p .
?p via:Import ?preu .
?a via:es_troba_a ?ciu .
?ciu via:Nom "{ciutat}" .
?a via:se_situa_a ?s .
?s via:Nom ?sit .
?a via:te_habitacions ?th .
?th via:Nom ?t .
?a via:ofereix ?test .
?test via:Nom ?testn .
?a via:es_popular ?pp .
?pp via:Nom ?ppn .
}}""",
initNs={"via": VIA})
dies = data_fi - data_ini
for row in res:
if (int(row[1]) >= int(NumPer)):
print(row[3])
preuTotal = int(NumPer) * int(row[3]) * (dies.days)
print(preuTotal)
if (preuTotal <= preuAllot):
Allotjaments = VIA.Allotjament + "_" + row[0]
resultat.add((Allotjaments, RDF.type, VIA.Allotjament))
resultat.add((Allotjaments, VIA.Nom, Literal(row[0])))
resultat.add(
(Allotjaments, VIA.Capacitat, Literal(row[1])))
resultat.add(
(Allotjaments, VIA.TipusAllotjament, Literal(row[2])))
resultat.add((Allotjaments, VIA.Preu, Literal(preuTotal)))
resultat.add(
(Allotjaments, VIA.Nom + "_Situacio", Literal(row[4])))
resultat.add((Allotjaments, VIA.Nom + "_TipusHabitacio",
Literal(row[5])))
resultat.add((Allotjaments, VIA.Nom + "_TipusEstada",
Literal(row[6])))
resultat.add((Allotjaments, VIA.Nom + "_Popularitat",
Literal(row[7])))
resultat.add(
(Allotjaments, VIA.Data + "_anada", Literal(dataI)))
resultat.add(
(Allotjaments, VIA.Data + "_tornada", Literal(dataF)))
return resultat
def main():
# Parse Swift book to retrieve concepts and related resources
start = "https://docs.swift.org/swift-book/"
nextURL = start
urls = [nextURL]
concepts = {}
while nextURL:
url = nextURL
page = urlopen(url)
soup = BeautifulSoup(page, 'html.parser')
#title = soup.find('title').string
article = soup.select_one('article.page')
headings = article.find_all(re.compile('^h[1-6]$'))
for heading in headings:
heading_text = str(heading.contents[0]).lower()
permalink = url + heading.contents[1].get('href')
doc = nlp(heading_text)
noun_phrases = [chunk for chunk in doc.noun_chunks]
if len(noun_phrases) > 0:
new_concepts = [lemmatize(lstrip_stopwords(chunk)).strip() for chunk in noun_phrases]
else:
# if no noun-phrases, take as verbatim (e.g. break, continue)
new_concepts = [heading_text]
for c in new_concepts:
if c not in concepts:
concepts[c] = []
if permalink not in concepts[c]:
# optionally: don't add if permalink (apart from fragment) is already contained (to avoid reindexing the same page multiple times, as a concept like "Function" might appear many times on its dedicated page in different headers)
if not page_included(permalink, concepts[c]):
concepts[c].append(permalink)
# continue to next page (if any)
nextLink = soup.select_one("p.next a")
if nextLink:
parts = urlsplit(nextURL)
base_path, _ = split(parts.path)
base_url = urlunsplit((parts.scheme, parts.netloc, join(base_path, ""), parts.query, parts.fragment))
nextURL = urljoin(base_url, nextLink.get('href'))
urls.append(nextURL)
else:
nextURL = None
# RDF Graph creation
g = Graph()
# Namespace bindings
NS = Namespace(ALMA_NS + SCHEME_NAME + "#")
DBPEDIA = Namespace('http://dbpedia.org/page/')
g.namespace_manager.bind('owl', OWL)
g.namespace_manager.bind('skos', SKOS)
g.namespace_manager.bind('dct', DCTERMS)
g.namespace_manager.bind('foaf', FOAF)
g.namespace_manager.bind('dbr', DBPEDIA)
g.namespace_manager.bind(SCHEME_NAME, NS)
# Ontology Metadata
ontology = URIRef(ALMA_NS + SCHEME_NAME)
g.add((ontology, RDF.type, OWL.term("Ontology")))
g.add((ontology, DCTERMS.term("title"), Literal("{} Ontology".format(SCHEME_NAME.title()))))
g.add((ontology, DCTERMS.term("description"), Literal("This is an SKOS-based lightweight ontology about the Swift programming language.")))
g.add((ontology, DCTERMS.term("subject"), URIRef(quote("http://dbpedia.org/page/Swift_(programming_language)"))))
g.add((ontology, DCTERMS.term("license"), URIRef("https://creativecommons.org/licenses/by-sa/4.0/")))
g.add((ontology, DCTERMS.term("created"), Literal(DATE_CREATED)))
g.add((ontology, DCTERMS.term("modified"), Literal(DATE_MODIFIED)))
g.add((ontology, RDFS.term("seeAlso"), URIRef("https://coast.uni.lu/alma/")))
g.add((ontology, OWL.term("versionIRI"), URIRef("http://purl.org/lu/uni/alma/{}/{}".format(SCHEME_NAME, LANGUAGE_VERSION))))
g.add((ontology, OWL.term("versionInfo"), Literal("{}/{}".format(LANGUAGE_VERSION, ONTOLOGY_VERSION))))
g.add((ontology, OWL.term("imports"), URIRef("http://www.w3.org/2004/02/skos/core")))
creator = BNode()
g.add((ontology, DCTERMS.term("creator"), creator))
g.add((creator, RDF.type, FOAF.term("Person")))
g.add((creator, FOAF.term("name"), Literal(AUTHOR_NAME)))
g.add((creator, FOAF.term("mbox"), URIRef(AUTHOR_EMAIL)))
# Concept Scheme
schemeURI = NS.term("Scheme")
g.add((schemeURI, RDF.type, SKOS.term("ConceptScheme")))
g.add((schemeURI, DCTERMS.term("title"), Literal(SCHEME_NAME.title())))
# Concepts
for (concept, urls) in concepts.items():
conceptURI = NS.term(cleanse(concept))
prefLabel = concept.title()
g.add((conceptURI, RDF.type, SKOS.term("Concept")))
g.add((conceptURI, RDF.type, OWL.term("NamedIndividual")))
g.add((conceptURI, SKOS.term("inScheme"), schemeURI))
g.add((conceptURI, SKOS.term("prefLabel"), Literal(prefLabel, lang='en')))
# Resources from Swift book
for url in urls:
g.add((conceptURI, SKOS.term("definition"), URIRef(url)))
# Serialization
for (format, file_extension) in SERIALIZATION_FORMATS.items():
file_name = "{}_{}_{}.{}".format(SCHEME_NAME, LANGUAGE_VERSION, ONTOLOGY_VERSION, file_extension)
g.serialize(format=format, destination=file_name)
print("Saved under {}".format(file_name))
print("# triples:", len(g))
from rappt import Chemistry
from rappt import Ecotox
from rappt import strip
from rdflib import Graph
from rdflib.namespace import OWL
basepath = './'
t = Taxonomy(directory=basepath + 'taxdump/',
namespace='http://example.org/ncbi')
t.save(basepath + 'rdf/')
c = Chemistry(directory=basepath + 'pubchem/')
c.save(basepath + 'rdf/')
e = Ecotox(directory=basepath + 'ecotox_ascii_03_14_2019/',
namespace='http://example.org/ecotox')
e.save(basepath + 'rdf/')
### Mapping CAS to CID
chems = [strip(s, ['/', '#']) for s in e.chemicals()]
cids = c.convert_ids(from_='cas', to_='cid', ids=chems)
sameas_graph = Graph()
for a, b in zip(chems, cids):
if a and b:
a = e.namespace['chemical/' + str(a)]
b = c.compound_namespace['CID' + str(s)]
sameas_graph.add((a, OWL.sameAs, b))
sameas_graph.serialize(basepath + 'rdf/equiv.nt', format='nt')
def make_rdf(infile_pubtator, outfile_rdf):
g = Graph()
data = Namespace("http://www.w3.org/ns/oa#")
ns_oa = Namespace("http://www.w3.org/ns/oa#")
ns_dcterms = Namespace("http://purl.org/dc/terms/")
ns_pubmed = Namespace("http://rdf.ncbi.nlm.nih.gov/pubmed/")
ns_dbsnp = Namespace("http://identifiers.org/dbsnp/")
ns_ncbigene = Namespace("http://identifiers.org/ncbigene/")
ns_mesh = Namespace("http://identifiers.org/mesh/")
ns_omim = Namespace("http://identifiers.org/omim/")
g.bind('oa', ns_oa)
g.bind('dcterms', ns_dcterms)
g.bind('pubmed', ns_pubmed)
g.bind('dbsnp', ns_dbsnp)
g.bind('ncbigene', ns_ncbigene)
g.bind('mesh', ns_mesh)
g.bind('omim', ns_omim)
fh_in = open(infile_pubtator, 'r')
#reader = csv.reader(fh_in, delimiter="\t")
lines = fh_in.readlines()
for line in lines:
row = line.rstrip('\n').split('\t')
try:
pmid = row[0]
disease = row[2]
mention = row[3]
resource = row[4]
list_resource = resource.split('|')
except IndexError:
continue
# skip header
if pmid == "PMID":
continue
blank = BNode()
g.add((blank, RDF.type, URIRef(ns_oa.Annotation)))
g.add((blank, URIRef(ns_oa.hasTarget), URIRef(ns_pubmed + pmid)))
# add disease id triple
match_mesh = re.match(r'^MESH', disease)
match_omim = re.match(r'^OMIM', disease)
if match_mesh:
mesh = disease.replace('MESH:', '')
list_mesh = mesh.split('|')
for m in list_mesh:
g.add((blank, URIRef(ns_oa.hasBody), URIRef(ns_mesh + m)))
elif match_omim:
omim = disease.replace('OMIM:', '')
list_omim = omim.split('|')
for o in list_omim:
g.add((blank, URIRef(ns_oa.hasBody), URIRef(ns_omim + o)))
# add resource triple
for s in list_resource:
g.add((blank, URIRef(ns_dcterms.source), Literal(s)))
# output RDF
g.serialize(destination=outfile_rdf, format='turtle')
fh_in.close()
return
def to_rdf(self, g: Graph) -> None:
subj = self.classExpressions[0].to_rdf(g)
for i in range(1, len(self.classExpressions)):
obj = self.classExpressions[i].to_rdf(g)
g.add((subj, OWL.equivalentClass, obj))
subj = obj
ts_base = 'http://data.datascienceinstitute.ie/software/'
onto_base = 'http://datascienceinstitute.ie/asio/schema#'
filename = sys.argv[1]
lines = []
with open(filename) as fp:
lines = fp.readlines()
for line in lines:
if "==" in line:
ts = line.replace("==", "").strip()
tsuri = URIRef(ts_base+ts)
if "::" in line:
la = line.split("::")
if len(la)==4: # ignoring homepages for now
curi = URIRef(crit_base+la[0])
comment = la[1]
value = int(la[2])
buri = URIRef(bib_base+la[3].strip())
as_uri = URIRef(base+ts+"_"+la[0])
g.add((as_uri, RDF.type, URIRef(onto_base+"CriterionAssessment")))
g.add((as_uri, URIRef(onto_base+"criterion"), curi))
g.add((as_uri, DC.subject, tsuri))
g.add((as_uri, DC.description, Literal(comment)))
g.add((as_uri, URIRef(onto_base+"value"), Literal(value)))
g.add((as_uri, URIRef('http://www.w3.org/ns/prov#primarySource'), buri))
print( g.serialize(format='ttl').decode('utf-8') )
def addStuff(self):
tarek = self.tarek
michel = self.michel
bob = self.bob
likes = self.likes
hates = self.hates
pizza = self.pizza
cheese = self.cheese
c1 = self.c1
graph = Graph(self.graph.store, c1)
graph.add((tarek, likes, pizza))
graph.add((tarek, likes, cheese))
graph.add((michel, likes, pizza))
graph.add((michel, likes, cheese))
graph.add((bob, likes, cheese))
graph.add((bob, hates, pizza))
graph.add((bob, hates, michel)) # gasp!
def _generate_reg_view_rdf(self):
g = Graph()
REG = Namespace('http://purl.org/linked-data/registry#')
g.bind('reg', REG)
LDP = Namespace('http://www.w3.org/ns/ldp#')
g.bind('ldp', LDP)
XHV = Namespace('https://www.w3.org/1999/xhtml/vocab#')
g.bind('xhv', XHV)
EREG = Namespace('https://promsns.org/def/eregistry#')
g.bind('ereg', EREG)
register_uri = URIRef(self.uri)
g.add((register_uri, RDF.type, REG.Register))
g.add((register_uri, RDFS.label, Literal(self.label, datatype=XSD.string)))
g.add((register_uri, RDFS.comment, Literal(self.comment, datatype=XSD.string)))
for cic in self.contained_item_classes:
g.add((register_uri, REG.containedItemClass, URIRef(cic)))
if self.super_register is not None:
g.add((register_uri, EREG.superregister, URIRef(self.super_register)))
page_uri_str = self.uri + '?per_page=' + str(self.per_page) + '&page=' + str(self.page)
page_uri_str_nonum = self.uri + '?per_page=' + str(self.per_page) + '&page='
page_uri = URIRef(page_uri_str)
# pagination
# this page
g.add((page_uri, RDF.type, LDP.Page))
g.add((page_uri, LDP.pageOf, register_uri))
# links to other pages
g.add((page_uri, XHV.first, URIRef(page_uri_str_nonum + '1')))
g.add((page_uri, XHV.last, URIRef(page_uri_str_nonum + str(self.last_page))))
if self.page != 1:
g.add((page_uri, XHV.prev, URIRef(page_uri_str_nonum + str(self.page - 1))))
if self.page != self.last_page:
g.add((page_uri, XHV.next, URIRef(page_uri_str_nonum + str(self.page + 1))))
if len(self.contained_item_classes) == 1:
contained_item_class = URIRef(self.contained_item_classes[0])
else:
contained_item_class = None
# add all the items
for item in self.register_items:
if isinstance(item, tuple): # if it's a tuple, add in the type
if len(item) < 2:
raise ValueError("Not enough items in register_item tuple.")
item_uri = URIRef(item[0])
if item[1] and isinstance(item[1], (str, bytes, Literal)):
g.add((item_uri, RDFS.label,
Literal(item[1], datatype=XSD.string)))
if len(item) > 2 and isinstance(item[2], Identifier):
g.add((item_uri, RDF.type, item[2]))
elif contained_item_class:
g.add((item_uri, RDF.type, contained_item_class))
elif item[1] and isinstance(item[1], Identifier):
g.add((item_uri, RDF.type, item[1]))
if len(item) > 2:
g.add((item_uri, RDFS.label,
Literal(item[2], datatype=XSD.string)))
g.add((item_uri, REG.register, register_uri))
else: # just URIs
item_uri = URIRef(item)
if contained_item_class:
g.add((item_uri, RDF.type, contained_item_class))
g.add((item_uri, REG.register, register_uri))
return g
def comunicacion():
"""
Entrypoint de comunicacion
"""
global dsgraph
global mss_cnt
# Extraemos el mensaje y creamos un grafo con el
message = request.args['content']
gm = Graph()
gm.parse(data=message)
msgdic = get_message_properties(gm)
#Mirem si es un msg FIPA ACL
if not msgdic:
#Si no ho es, responem not understood
logger.info('Msg no es FIPA ACL')
gr = build_message(Graph(),
ACL['not-understood'],
sender=EmpresaTransportista.uri,
msgcnt=mss_cnt)
else:
#Si ho es obtenim la performativa
if msgdic['performative'] != ACL.request:
#No es un request, not understood
logger.info('Msg no es una request')
gr = build_message(Graph(),
ACL['not-understood'],
sender=EmpresaTransportista.uri,
msgcnt=mss_cnt)
else:
#Mirem tipus request
content = msgdic['content']
action = gm.value(subject=content, predicate=RDF.type)
print('La action es:', action)
print('La action hauria de ser:', REQ.PeticioEmpresa)
if action == REQ.PeticioEmpresa:
logger.info('Es demana preu')
print(
'------------------------Rebem peticio------------------------'
)
#obté pes, ciutat desti i plaç màxim d'entrega per ara HARDCODED
pes = gm.value(subject=content, predicate=REQ.QuantProductes)
#pes = 2
ciutatDesti = 'Barcelona'
diaMaxim = '15/10/2021'
#conjuntEmpreses = ['empresa_1', 'empresa_2', 'empresa_3', 'empresa_4', 'empresa_5']
conjuntEmpreses = []
conjuntEmpreses.append(
str(gm.value(subject=content, predicate=REQ.CJE1)))
conjuntEmpreses.append(
str(gm.value(subject=content, predicate=REQ.CJE2)))
conjuntEmpreses.append(
str(gm.value(subject=content, predicate=REQ.CJE3)))
conjuntEmpreses.append(
str(gm.value(subject=content, predicate=REQ.CJE4)))
conjuntEmpreses.append(
str(gm.value(subject=content, predicate=REQ.CJE5)))
gResposta = Graph()
gResposta.bind('req', REQ)
resposta_empresa = agn['resposta']
xsddatatypes = {'s': XSD.string, 'i': XSD.int, 'f': XSD.float}
result_properties = {'Nombre': 's', 'Precio': 'f'}
print('HOLA1')
for prop in result_properties:
if result_properties[prop] in ['s', 'i', 'f']:
gResposta.add(
(REQ[prop], RDF.type, OWL.DatatypeProperty))
gResposta.add((REQ[prop], RDFS.range,
xsddatatypes[result_properties[prop]]))
else:
gResposta.add(
(REQ[prop], RDF.type, OWL.ObjectProperty))
gResposta.add((REQ[prop], RDFS.range,
REQ[result_properties[prop]]))
gResposta.add((REQ.RespostaEmpresa, RDF.type, OWL.Class))
print('HOLA2')
print('Conjunt empreses:', conjuntEmpreses)
print('Tamany empreses:', len(conjuntEmpreses))
for i in range(0, len(conjuntEmpreses)):
result_obj = REQ[conjuntEmpreses[i]]
print('Estic dins: ', i)
preu = float(pes) * random.uniform(limR[0], limR[1])
print('PES CALCULAT')
gResposta.add((result_obj, RDF.type, REQ.RespostaEmpresa))
print('Estic a dins del bucle:', conjuntEmpreses[i])
gResposta.add((result_obj, REQ['Nombre'],
Literal(conjuntEmpreses[i])))
print('Estic a dins del bucle2:', conjuntEmpreses[i])
gResposta.add((result_obj, REQ['Precio'], Literal(preu)))
print(preu)
# for row in conjuntEmpreses:
# print('Estic dins bucle:', row)
# preu = pes * random.uniform(limR[0], limR[1])
# gResposta.add((resposta_empresa, RDF.type, REQ.RespostaEmpresa))
# gResposta.add((resposta_empresa, REQ['Nombre'], row))
# gResposta.add((resposta_empresa, REQ['Precio'], preu))
print(
'------------------------Preparat per retornar resposta------------------------'
)
gr = build_message(gResposta,
ACL['inform-done'],
sender=EmpresaTransportista.uri,
msgcnt=mss_cnt)
elif action == REQ.EmpresaGuanyadora:
print(
'------------------------Rebem Resposta Millor Empresa------------------------'
)
empresaEscollida = gm.value(subject=content,
predicate=REQ.NomEmpresa)
print('La empresa escollida és: ', empresaEscollida)
gr = build_message(Graph(),
ACL['inform-done'],
sender=EmpresaTransportista.uri,
msgcnt=mss_cnt)
else:
logger.info('Es una request que no entenem')
gr = build_message(Graph(),
ACL['not-understood'],
sender=EmpresaTransportista.uri,
msgcnt=mss_cnt)
mss_cnt += 1
return gr.serialize(format='xml')
pass
g.bind("prov", prov)
g.bind("ti", ti)
#############################
# #
# Places #
# #
#############################
for place in root.findall('.//tei:place', tei):
place_id = place.get('{http://www.w3.org/XML/1998/namespace}id')
place_uri = URIRef(base_uri + '/place/' + place_id)
place_ref = '#' + place_id
#place
g.add((place_uri, RDF.type, crm.E53_Place))
#place_sameas(place)
same_as = place.get('sameAs').split()
i = 0
while i < len(same_as):
same_as_uri = URIRef(same_as[i])
g.add((place_uri, OWL.sameAs, same_as_uri))
i += 1
#placename(place)
placename = place.find('./tei:placeName', tei)
label = placename.text
label_lang = placename.get('{http://www.w3.org/XML/1998/namespace}lang')
if label_lang is not None:
g.add((place_uri, RDFS.label, Literal(label, lang=label_lang)))
mashup_policy_res = subjects[0]
print(mashup_policy_res)
# user policy
files = glob.glob(path.join(args.policyDir, "*.ttl"))
n = 0
for userpolicy in files:
print(userpolicy)
g_policy = Graph()
g_policy.parse(files[0], format="turtle")
user_policy_res = list(g_policy.triples(
(None, RDF.type, OWL.Class)))[0][0]
print(user_policy_res)
cfg = BNode()
g_config.add((cfg, CPSS["refPolicy"], makeList(g_config,
args.refPolicy)))
g_config.add(
(cfg, CPSS["userPolicy"], URIRef(userpolicy.replace(path.sep,
"/"))))
g_config.add((cfg, CPSS["usagePolicy"], URIRef(args.mashupPolicy)))
g_config.add((cfg, CPSS["usageSubj"], mashup_policy_res))
g_config.add((cfg, CPSS["userSubj"], user_policy_res))
g_config.add((root, CPSS["hasConfig"], cfg))
n += 1
#if n > 5: break
with open(args.outputCfg, "wb") as fo:
fo.write(g_config.serialize(format="turtle"))
def to_rdf(self) -> Graph:
"""Generate an rdflib.Graph from this GraphSet.
Returns:
rdf.Graph object representing this GraphSet.
"""
namespace = Namespace(f"{self.name}:")
node_cache = NodeCache()
graph = Graph()
metadata_node = BNode()
graph.add((metadata_node, RDF.type, getattr(namespace, "metadata")))
graph.add((metadata_node, getattr(namespace,
"name"), Literal(self.name)))
graph.add((metadata_node, getattr(namespace,
"version"), Literal(self.version)))
graph.add(
(metadata_node, getattr(namespace,
"start_time"), Literal(self.start_time)))
graph.add((metadata_node, getattr(namespace,
"end_time"), Literal(self.end_time)))
for error in self.errors:
graph.add((metadata_node, getattr(namespace,
"error"), Literal(error)))
for resource in self.resources:
resource.to_rdf(namespace=namespace,
graph=graph,
node_cache=node_cache)
return graph
for i in map:
try:
value = values[j][i]
except Exception as e:
# print(e)
continue
if value == "end":
continue
if value != "":
obj = map[i]
p = URIRef(obj["uri"])
values2 = value.split("|")
for value in values2:
value = bbb(value)
if obj["type"].upper() == "RESOURCE":
all.add((subject, p, URIRef(value)))
else:
all.add((subject, p, Literal(value)))
# print(all)
all.serialize(destination="data/kani.rdf", format='pretty-xml')
# print(all.serialize(format="turtle").decode("utf-8"))
def _generate_alt_profiles_rdf(self):
# Alt R Data Model as per https://www.w3.org/TR/dx-prof-conneg/#altr
g = Graph()
ALTR = Namespace('http://www.w3.org/ns/dx/conneg/altr#')
g.bind('altr', ALTR)
g.bind('dct', DCTERMS)
PROF = Namespace('http://www.w3.org/ns/prof/')
g.bind('prof', PROF)
instance_uri = URIRef(self.instance_uri)
# for each Profile, lis it via its URI and give annotations
for token, p in self.profiles.items():
profile_uri = URIRef(p.uri)
g.add((profile_uri, RDF.type, PROF.Profile))
g.add((profile_uri, PROF.token, Literal(token,
datatype=XSD.token)))
g.add(
(profile_uri, RDFS.label, Literal(p.label,
datatype=XSD.string)))
g.add((profile_uri, RDFS.comment,
Literal(p.comment, datatype=XSD.string)))
# for each Profile and Media Type, create a Representation
for token, p in self.profiles.items():
for mt in p.mediatypes:
if not str(mt).startswith(
'_'): # ignore Media Types like `_internal`
rep = BNode()
g.add((rep, RDF.type, ALTR.Representation))
g.add((rep, DCTERMS.conformsTo, URIRef(p.uri)))
g.add((rep, URIRef(DCTERMS + 'format'), Literal(mt)))
# if this is the default format for the Profile, say so
if mt == p.default_mediatype:
g.add((rep, ALTR.isProfilesDefault,
Literal(True, datatype=XSD.boolean)))
# link this representation to the instances
g.add((instance_uri, ALTR.hasRepresentation, rep))
# if this is the default Profile and the default Media Type, set it as the instance's default Rep
if token == self.default_profile_token and mt == p.default_mediatype:
g.add(
(instance_uri, ALTR.hasDefaultRepresentation, rep))
return g
import json
from linking import link
import os
path = os.path.dirname(os.path.dirname(os.path.realpath(__file__)))
data = json.load(open(path + "/DatiPerElaborazione/SubwayStation.geojson",
"r"))
g = Graph()
cmo = Namespace("http://www.comune.milano.it/ontology/")
schema = Namespace("https://schema.org/")
g.bind("cmo", cmo)
g.bind("schema", schema)
for element in data:
uri = element["URI"]
g.add([URIRef(uri), RDF.type, schema.SubwayStation])
g.add([URIRef(uri), RDFS.label, Literal(element["nome"])])
g.add([
URIRef(uri), cmo.lineOfPublicTransportSystemStation,
Literal(element["linea"])
])
g.add([
URIRef(uri), cmo.latitude,
Literal(element["lat"], datatype=XSD.float)
])
g.add([
URIRef(uri), cmo.longitude,
Literal(element["long"], datatype=XSD.float)
])
uriToLink = link(element["nome"])
if not actors:
print("No actor")
else:
graph = Graph()
graph.parse("tagraph.ttl", format="turtle")
tgo_uri = "http://example.org/cyber/tgo#"
actors_ = [i.lower().strip().replace(" ", "_") for i in actors]
malwares_ = [i.lower().strip().replace(" ", "_") for i in malwares]
campaigns_ = [i.lower().strip().replace(" ", "_") for i in campaigns]
targets_ = [i.lower().strip().replace(" ", "_") for i in targets]
# add all named entities into respective class
for i in range(len(actors_)):
graph.add((URIRef(tgo_uri + actors_[i]), RDF.type,
URIRef(tgo_uri + "ThreatActor")))
graph.add(
(URIRef(tgo_uri + actors_[i]), URIRef(tgo_uri + "hasTitle"),
Literal(actors[i], datatype=XSD.string)))
for i in range(len(malwares_)):
graph.add((URIRef(tgo_uri + malwares_[i]), RDF.type,
URIRef(tgo_uri + "Malware")))
graph.add(
(URIRef(tgo_uri + malwares_[i]), URIRef(tgo_uri + "hasTitle"),
Literal(malwares[i], datatype=XSD.string)))
for i in range(len(campaigns_)):
graph.add((URIRef(tgo_uri + campaigns_[i]), RDF.type,
URIRef(tgo_uri + "Campaign")))
graph.add(
(URIRef(tgo_uri + campaigns_[i]), URIRef(tgo_uri + "hasTitle"),
Literal(campaigns[i], datatype=XSD.string)))
countryDict[str(country_id)] = uri
with open(filePath_2, 'rU') as f2:
instruments = csv.reader(f2, dialect='excel', delimiter=',', quotechar='"')
p = re.compile(r'^http://')
for row in instruments:
instrument_id = row[0]
name = row[1]
type_indicator = row[2]
sameAs_uri = row[3]
predicate = row[4]
section_id = row[5]
if type_indicator in ('ANIMAL', 'ROLE_IND'):
instrument_uri = chroles[str(instrument_id)]
gInstruments.add((URIRef(instrument_uri), RDF.type, schema.Role))
elif type_indicator in ('ENS', 'ROLE_GRP'):
instrument_uri = chensembles[str(instrument_id)]
gInstruments.add(
(URIRef(instrument_uri), RDF.type, schema.PerformingGroup))
else:
instrument_uri = chinstruments[str(instrument_id)]
gInstruments.add((URIRef(instrument_uri), RDF.type, mo.Instrument))
gInstruments.add((URIRef(instrument_uri), RDFS.label, Literal(name)))
instrumentDict[str(instrument_id)] = {}
instrumentDict[str(instrument_id)]['label'] = name
instrumentDict[str(instrument_id)]['typeIndicator'] = type_indicator
instrumentDict[str(instrument_id)]['uri'] = instrument_uri
instrumentDict[str(instrument_id)]['sameAs'] = sameAs_uri
for parents0 in tree.findall("stations/station"):
name_station = parents0.find('.//name')
n2 = name_station.text
estaciones1.append(n2)
for i in estaciones1:
for parents in tree.findall("./{ELRAD}Station"):
Name_ = parents.find(".//{ELRAD}StationName")
name_ = Name_.text
if name_ == i:
bag0 = rdflib.BNode()
g.add((bag0, Name, Literal(name_)))
for parents2 in parents.findall("./{ELRAD}Lines/{ELRAD}Line"):
lineN = parents2.find(".//{ELRAD}LineName")
if lineN is not None:
lineName = lineN.text
else:
lineN = 'None'
platform = parents2.find(".//{ELRAD}Platform")
if platform is not None:
platform = platform.text
direction = parents2.find(".//{ELRAD}Direction")
if direction is not None:
wiki_extract = WikiExtractor()
page_title = 'Basic_income_around_the_world'
page = wiki_extract.wikipedia.page(page_title)
all_sections = wiki_extract.get_sections(sections=page.sections)
section_titles = []
subsection_titles = []
only_place_filter = {'policy': "whitelist", 'types': "DBpedia:Place", 'coreferenceResolution': False}
# Adding Continents and Countries RDF
for section in all_sections:
if isinstance(section, dict):
for key in section.keys():
place = key
graph.add((PROJECT[place.replace(" ", "_")], RDF.type, SCHEMA.Place))
try:
section_annotations = spotlight.annotate('http://api.dbpedia-spotlight.org/en/annotate', place,
confidence=0.5, filters=only_place_filter)
graph.add((URIRef(section_annotations[0]['URI']), OWL.sameAs, PROJECT["place/" + place.replace(" ", "_")]))
except:
print("")
for subsection in section[key]:
if isinstance(subsection, dict):
place = list(subsection.keys())[0]
else:
place = subsection
graph.add((PROJECT["place/" + place.replace(" ", "_")], RDF.type, SCHEMA.Place))
graph.add(
gn = Namespace('https://www.geonames.org/ontology#')
graph.bind('rdfs', rdfs)
graph.bind('rdf', rdf)
graph.bind('schema', schema)
graph.bind('eac-cpf', eaccpf)
graph.bind('dbo', dbo)
graph.bind('djo', djo)
graph.bind('owl', owl)
graph.bind('fabio', fabio)
graph.bind('eac-cpf', eaccpf)
graph.bind('bf', bf)
graph.bind('gnd', gnd)
graph.bind('gn', gn)
graph.add((djo['Place'], RDF['type'], owl['Class']))
graph.add((djo['Place'], rdfs['label'], Literal('Place')))
graph.add((djo['Place'], rdfs['subClassOf'], owl['Thing']))
graph.add((djo['Place'], owl['equivalentClass'], schema['Place']))
graph.add((djo['Place'], owl['equivalentClass'], gn['Feature']))
graph.add((djo['Book'], RDF['type'], owl['Class']))
graph.add((djo['Book'], rdfs['label'], Literal('Book')))
graph.add((djo['Book'], rdfs['subClassOf'], owl['Thing']))
graph.add((djo['Book'], owl['equivalentClass'], schema['Book']))
graph.add((djo['Book'], owl['equivalentClass'], fabio['Book']))
graph.add((djo['Book'], owl['equivalentClass'], bf['Work']))
graph.add((djo['Book'], owl['equivalentClass'], gnd['Work']))
graph.add((djo['Person'], RDF['type'], owl['Class']))
graph.add((djo['Person'], rdfs['label'], Literal('Person')))
# print(ensembl_geneQuery)
# sparql.setQuery(ensembl_geneQuery)
# sparql.setReturnFormat(JSON)
# results = sparql.query().convert()
# for result in results["results"]["bindings"]:
# print(result["item"]["value"], result["ensemblGeneID"]["value"])
# ensemblURI[result["ensemblGeneID"]["value"]] = result["item"]["value"]
i = 0 # TODO: change to uuid
for record in vcf_reader:
i += 1 # TODO: change to uuid
chrom_nr = chrom[record.CHROM]
print("hgvs: "+chrom_nr+":g."+str(record.POS)+str(record.REF)+">"+str(record.ALT[0]))
variant_uri = URIRef("http://umc.nl/genetics/FAIR/"+urllib.parse.quote_plus(chrom_nr+":g."+str(record.POS)+str(record.REF)+">"+str(record.ALT[0])))
vcfGraph.add((variant_uri, RDF.type, URIRef("http://purl.obolibrary.org/obo/SO_0001060")))
vcfGraph.add((variant_uri, DCTERMS.identifier, Literal(chrom_nr+":g."+str(record.POS)+str(record.REF)+">"+str(record.ALT[0]))))
vcfGraph.add((variant_uri, URIRef("http://www.wikidata.org/prop/direct/P3331"), Literal(chrom_nr+":g."+str(record.POS)+str(record.REF)+">"+str(record.ALT[0]))))
chromosomeIRI = URIRef("http://umc.nl/genetics/FAIR/chromosome/"+chrom_nr)
vcfGraph.add((chromosomeIRI, RDF.type, URIRef("https://www.wikidata.org/wiki/Q37748")))
vcfGraph.add((chromosomeIRI, DCTERMS.identifier, Literal(chrom_nr)))
vcfGraph.add((variant_uri, DCTERMS.isPartOf, chromosomeIRI))
# Genomic START
vcfGraph.add((variant_uri, wikidataprop.P644, Literal(record.POS)))
vcfGraph.add((variant_uri, wikidataprop.P645, Literal(record.POS)))
# print(record.)
vcfInfo = record.INFO['ANN'][0].split("|")
gene_uri = URIRef("http://rdf.ebi.ac.uk/resource/ensembl/"+vcfInfo[4])
# print(record.INFO['ANN'][0])
end = datetime(int(tokens[3]), int(month_to_date[tokens[1]]),
int(tokens[2]))
url_end = tokens[2] + "-" + tokens[1] + "-" + tokens[3]
manager_job_name = manager_name.replace(' ','_') + \
":" + club.replace(' ','_') + ":" + url_begin + ":" + url_end
manager_job_URI = URIRef(ontology_root + manager_job_name)
manager_name_for_URI = manager_name.replace(' ', '_') + "_manager"
manager_URI = URIRef(ontology_root + manager_name_for_URI)
club_URI = URIRef(ontology_root + club.replace(' ', '_'))
country_URI = URIRef(ontology_root + country.replace(' ', '_'))
if len(manager_nationality) > 4:
nationality_URI = URIRef(ontology_root +
manager_nationality.replace(' ', '_'))
g.add((nationality_URI, RDF.type, dbpedia.Country))
g.add((nationality_URI, dbpedia.informationName,
Literal(manager_nationality)))
g.add((manager_URI, sport_ontology.hasNationality,
nationality_URI))
g.add((manager_job_URI, RDF.type, sport_ontology.Transfer))
g.add((club_URI, RDF.type, sport_ontology.MultiPlayer))
g.add((manager_URI, RDF.type, sport_ontology.Manager))
g.add((country_URI, RDF.type, dbpedia.Country))
g.add((manager_job_URI, sport_ontology.hasPerson, manager_URI))
g.add((manager_job_URI, sport_ontology.hasTeam, club_URI))
g.add((manager_job_URI, sport_ontology.hasDetails,
Literal(position)))