def testAggregateRaw():
memStore = plugin.get('IOMemory',Store)()
graph1 = Graph(memStore)
graph2 = Graph(memStore)
graph3 = Graph(memStore)
for n3Str,graph in [(testGraph1N3,graph1),
(testGraph2N3,graph2),
(testGraph3N3,graph3)]:
graph.parse(StringIO(n3Str),format='n3')
G = ReadOnlyGraphAggregate([graph1,graph2,graph3])
#Test triples
assert len(list(G.triples((None,RDF.type,None)))) == 4
assert len(list(G.triples((URIRef("http://test/bar"),None,None)))) == 2
assert len(list(G.triples((None,URIRef("http://test/d"),None)))) == 3
#Test __len__
assert len(G) == 8
#Test __contains__
assert (URIRef("http://test/foo"),RDF.type,RDFS.Resource) in G
barPredicates = [URIRef("http://test/d"),RDFS.isDefinedBy]
assert len(list(G.triples_choices((URIRef("http://test/bar"),barPredicates,None)))) == 2
def testAggregateRaw():
memStore = plugin.get('IOMemory', Store)()
graph1 = Graph(memStore)
graph2 = Graph(memStore)
graph3 = Graph(memStore)
for n3Str, graph in [(testGraph1N3, graph1), (testGraph2N3, graph2),
(testGraph3N3, graph3)]:
graph.parse(StringIO(n3Str), format='n3')
G = ReadOnlyGraphAggregate([graph1, graph2, graph3])
#Test triples
assert len(list(G.triples((None, RDF.type, None)))) == 4
assert len(list(G.triples((URIRef("http://test/bar"), None, None)))) == 2
assert len(list(G.triples((None, URIRef("http://test/d"), None)))) == 3
#Test __len__
assert len(G) == 8
#Test __contains__
assert (URIRef("http://test/foo"), RDF.type, RDFS.Resource) in G
barPredicates = [URIRef("http://test/d"), RDFS.isDefinedBy]
assert len(
list(
G.triples_choices(
(URIRef("http://test/bar"), barPredicates, None)))) == 2
def testAggregateRaw():
memStore = plugin.get('IOMemory', Store)()
graph1 = Graph(memStore) #Crea una instancia de un grafo
graph2 = Graph(memStore)
graph3 = Graph(memStore)
for n3Str, graph in [(testGraph1N3, graph1), (testGraph2N3, graph2),
(testGraph3N3, graph3)]:
graph.parse(StringIO(n3Str),
format='n3') #Lee los grafos desde texto en formato N3
for s, p, o in graph2: #Analizando el contenido del grafo
print 'tripleta:', s, p, o, '-'
# Utility class for treating a set of graphs as a single graph
# Only read operations are supported (hence the name).
#Essentially a ConjunctiveGraph over an explicit subset of the entire store.
G = ReadOnlyGraphAggregate([graph1, graph2, graph3]) #
print '----------------------------------------'
print G.triples((None, RDF.type, None))
for g in G.triples((URIRef("http://test/bar"), None, None)):
print g
print '---------------------------------------'
#Test triples
assert len(list(G.triples((None, RDF.type, None)))) == 4
assert len(list(G.triples((URIRef("http://test/bar"), None, None)))) == 2
assert len(list(G.triples((None, URIRef("http://test/d"), None)))) == 3
#Test __len__
assert len(G) == 8
print '----------Analizando G:------------------------------'
for g in G:
print g
print '----------------------------------------'
#Test __contains__
assert (URIRef("http://test/foo"), RDF.type, RDFS.Resource) in G
print '----------Comprobando contenido G:------------------------------'
print(URIRef("http://test/foo"), RDF.type, RDFS.Resource) in G
print '----------------------------------------'
barPredicates = [URIRef("http://test/d"), RDFS.isDefinedBy]
assert len(
list(
G.triples_choices(
(URIRef("http://test/bar"), barPredicates, None)))) == 2
