def obl_modifier(dep_graph: DependencyGraph, oia_graph: OIAGraph,
context: UD2OIAContext):
"""
the adv before the verb should be processed by verb_phrase
this converter should process the adv after the verb
:param sentence:
:return:
"""
pattern = DependencyGraph()
# TODO: it seems that in UD labeling, adv is used instead of adj for noun
modified_node = DependencyGraphNode()
modifier_node = DependencyGraphNode()
pattern.add_nodes([modified_node, modifier_node])
pattern.add_dependency(modified_node, modifier_node, r'\bobl')
for match in dep_graph.match(pattern):
dep_modified_node = match[modified_node]
dep_modifier_node = match[modifier_node]
if oia_graph.has_relation(dep_modified_node,
dep_modifier_node,
direct_link=False):
continue
oia_modified_node = oia_graph.add_words(dep_modified_node.position)
oia_modifier_node = oia_graph.add_words(dep_modifier_node.position)
oia_graph.add_mod(oia_modifier_node, oia_modified_node)
def acl_mod_verb(dep_graph: DependencyGraph, oia_graph: OIAGraph,
context: UD2OIAContext):
"""
this is called after adnominal_clause_mark, which means there is no mark
:param dep_graph:
:param oia_graph:
:return:
"""
pattern = DependencyGraph()
noun_node = pattern.create_node(UPOS="NOUN|PRON|PROPN|ADJ|ADV|NUM")
# ADJ is for the cases that "many/some" are abbrv of many X/some X, representing NOUN
# ADV is for the case of "here" for "i am here thinking xxx"
verb_node = pattern.create_node(UPOS="VERB|AUX")
# aux is for can, have which ommits the true verb
pattern.add_nodes([noun_node, verb_node])
pattern.add_dependency(noun_node, verb_node, r'acl')
for match in dep_graph.match(pattern):
dep_noun_node = match[noun_node]
dep_verb_node = match[verb_node]
if context.is_processed(dep_noun_node, dep_verb_node):
continue
if oia_graph.has_relation(dep_noun_node,
dep_verb_node,
direct_link=False):
continue
oia_verb_node = oia_graph.add_words(dep_verb_node.position)
oia_noun_node = oia_graph.add_words(dep_noun_node.position)
dep = dep_graph.get_dependency(dep_noun_node, dep_verb_node)
labels = [x for x in dep.rels if x.startswith("acl:")]
pred = None
if labels:
assert len(labels) == 1
label = labels[0]
pred = label.split(":")[1]
if pred == "relcl":
pred = None
# if pred:
# # there is no mark, but we add it because it may be because of not being shared in conjunction
#
# oia_pred_node = oia_graph.add_aux(pred)
# oia_graph.add_argument(oia_pred_node, oia_noun_node, 1, mod=True)
# oia_graph.add_argument(oia_pred_node, oia_verb_node, 2)
# else:
oia_graph.add_mod(oia_verb_node, oia_noun_node)
def adverbial_clause(dep_graph: DependencyGraph, oia_graph: OIAGraph,
context: UD2OIAContext):
"""
Adverbial Clause
##### run in order to catch it. advcl with mark (in order to) #####
##### he worked hard, replacing his feud. advcl without mark #####
:param dep_graph:
:param oia_graph:
:return:
"""
pattern = DependencyGraph()
verb_node = pattern.create_node()
modifier_node = pattern.create_node()
pattern.add_dependency(verb_node, modifier_node, "advcl")
for match in list(dep_graph.match(pattern)):
dep_verb_node = match[verb_node]
dep_modifier_node = match[modifier_node]
if context.is_processed(dep_verb_node, dep_modifier_node):
continue
oia_verb_node = oia_graph.add_words(dep_verb_node.position)
oia_modifier_node = oia_graph.add_words(dep_modifier_node.position)
logger.debug("adverbial clause: verb={0}, modifier={1}".format(
dep_verb_node.position, dep_modifier_node.position))
if oia_graph.has_relation(oia_verb_node, oia_modifier_node):
continue
mark = list(
dep_graph.children(dep_modifier_node,
filter=lambda n, rel: "mark" in rel))
if mark:
mark, rel = mark[0]
pred_node = oia_graph.add_words(mark.position)
if pred_node is None:
continue
if mark.LEMMA in CONJUNCTION_WORDS[language]:
continue
oia_graph.add_argument(pred_node, oia_verb_node, 1, mod=True)
oia_graph.add_argument(pred_node, oia_modifier_node, 2)
else:
oia_graph.add_mod(oia_modifier_node, oia_verb_node)
def nmod_with_case(dep_graph: DependencyGraph, oia_graph: OIAGraph,
context: UD2OIAContext):
"""
#################### nmod:x ########################
##### the office of the chair #####
##### Istanbul in Turkey #####
:param sentence:
:return:
"""
pattern = DependencyGraph()
parent_node = DependencyGraphNode()
child_node = DependencyGraphNode()
case_node = DependencyGraphNode()
pattern.add_nodes([parent_node, child_node, case_node])
pattern.add_dependency(parent_node, child_node, r'\w*nmod\w*')
pattern.add_dependency(child_node, case_node, r'\w*case\w*')
for match in dep_graph.match(pattern):
dep_parent_node = match[parent_node]
dep_child_node = match[child_node]
dep_case_node = match[case_node]
rel = dep_graph.get_dependency(dep_parent_node, dep_child_node)
# vs, lemma = versus
# according, lemma = accord,
# but rel always select the shorter one
if oia_graph.has_relation(dep_parent_node, dep_child_node):
continue
if rel != "nmod:" + dep_case_node.LEMMA and rel != 'nmod:' + dep_case_node.FORM:
pred_node = oia_graph.add_words(dep_case_node.position)
else:
pred_node = oia_graph.add_words(dep_case_node.position)
arg1_node = oia_graph.add_words(dep_parent_node.position)
arg2_node = oia_graph.add_words(dep_child_node.position)
oia_graph.add_argument(pred_node, arg1_node, 1, mod=True)
oia_graph.add_argument(pred_node, arg2_node, 2)
def oblique_without_prep(dep_graph: DependencyGraph, oia_graph: OIAGraph,
context: UD2OIAContext):
"""
:param dep_graph:
:param oia_graph:
:return:
"""
# cut X by a knife
pattern = DependencyGraph()
verb_node = DependencyGraphNode(UPOS="VERB|NOUN|ADJ|PROPN|PRON")
oblique_node = DependencyGraphNode()
pattern.add_node(verb_node)
pattern.add_node(oblique_node)
pattern.add_dependency(verb_node, oblique_node, r'obl:tmod|obl:npmod|obl')
for match in dep_graph.match(pattern):
dep_verb_node = match[verb_node]
dep_oblique_node = match[oblique_node]
if oia_graph.has_relation(dep_verb_node,
dep_oblique_node,
direct_link=False):
continue
oblique_edge = dep_graph.get_dependency(dep_verb_node,
dep_oblique_node)
oblique_types = oblique_edge.values()
if "tmod" in oblique_types:
oia_pred_node = oia_graph.add_aux("TIME_IN")
arg1_node = oia_graph.add_words(dep_verb_node.position)
arg2_node = oia_graph.add_words(dep_oblique_node.position)
oia_graph.add_argument(oia_pred_node, arg1_node, 1, mod=True)
oia_graph.add_argument(oia_pred_node, arg2_node, 2)
else: # "npmod" in oblique_types and others
oia_verb_node = oia_graph.add_words(dep_verb_node.position)
obl_node = oia_graph.add_words(dep_oblique_node.position)
oia_graph.add_mod(obl_node, oia_verb_node)
def nmod_without_case(dep_graph: DependencyGraph, oia_graph: OIAGraph,
context: UD2OIAContext):
"""
#################### nmod:x ########################
:param sentence:
:return:
"""
pattern = DependencyGraph()
center_node = pattern.create_node()
modifier_node = pattern.create_node()
pattern.add_dependency(center_node, modifier_node, r'\w*nmod\w*')
for match in dep_graph.match(pattern):
dep_center_node = match[center_node]
dep_modifier_node = match[modifier_node]
rels = dep_graph.get_dependency(dep_center_node, dep_modifier_node)
if "nmod:poss" in rels and dep_center_node in set(
dep_graph.offsprings(dep_modifier_node)):
# whose in there
continue
if oia_graph.has_relation(dep_center_node,
dep_modifier_node,
direct_link=False):
continue
oia_center_node = oia_graph.add_words(dep_center_node.position)
oia_modifier_node = oia_graph.add_words(dep_modifier_node.position)
oia_graph.add_mod(oia_modifier_node, oia_center_node)
def adv_relative_clause(dep_graph, oia_graph: OIAGraph,
context: UD2OIAContext):
"""
#### When/Where Relative clause #####
#### a time when US troops won/ a place where US troops won. acl:relcl with time/place
:param sentence:
:return:
"""
pattern = DependencyGraph()
modified_node = pattern.create_node()
modifier_node = pattern.create_node()
adv_rel_node = pattern.create_node()
pattern.add_dependency(modified_node, modifier_node, r'acl:relcl\w*')
pattern.add_dependency(modifier_node, adv_rel_node, r'advmod')
for match in dep_graph.match(pattern):
dep_modified_node = match[modified_node]
dep_modifier_node = match[modifier_node]
dep_rel_node = match[adv_rel_node]
if not any(x in dep_rel_node.LEMMA
for x in {"when", "where", "how", "why", "what"}):
continue
oia_pred_node = oia_graph.add_words(dep_rel_node.position)
oia_modified_node = oia_graph.add_words(dep_modified_node.position)
oia_modifier_node = oia_graph.add_words(dep_modifier_node.position)
if oia_graph.has_relation(oia_modifier_node, oia_modified_node):
continue
oia_graph.add_argument(oia_pred_node, oia_modified_node, 1, mod=True)
oia_graph.add_argument(oia_pred_node, oia_modifier_node, 2)
def adv_verb_modifier(dep_graph: DependencyGraph, oia_graph: OIAGraph,
context: UD2OIAContext):
"""
the adv before the verb should be processed by verb_phrase
this converter should process the adv after the verb
verb1 in order to verb2
:param sentence:
:return:
"""
pattern = DependencyGraph()
# TODO: it seems that in UD labeling, adv is used instead of adj for noun
verb_node = DependencyGraphNode(
UPOS="VERB|NOUN|PROPN|AUX|PRON") # aux is for be word
adv_node = DependencyGraphNode(UPOS="ADV|X|NOUN|ADJ|VERB")
pattern.add_nodes([verb_node, adv_node])
pattern.add_dependency(verb_node, adv_node, r'advmod')
for match in dep_graph.match(pattern):
dep_verb_node = match[verb_node]
dep_adv_node = match[adv_node]
if context.is_processed(dep_verb_node, dep_adv_node):
continue
if oia_graph.has_relation(dep_verb_node, dep_adv_node):
continue
obl_children = [
x for x, l in dep_graph.children(
dep_adv_node, filter=lambda n, l: l.startswith("obl"))
]
obl_node = None
obl_has_case = False
if len(obl_children) == 1:
obl_node = obl_children[0]
case_nodes = list(n for n, l in dep_graph.children(
obl_node, filter=lambda n, l: "case" in l))
if case_nodes:
# if obl with case, let the oblique to process it
obl_has_case = True
mark_children = [
x for x, l in dep_graph.children(
dep_adv_node, filter=lambda n, l: l.startswith("mark"))
]
oia_verb_node = oia_graph.add_words(dep_verb_node.position)
oia_adv_node = oia_graph.add_words(dep_adv_node.position)
if obl_node and not obl_has_case:
# arg_nodes = list(dep_graph.offsprings(obl_node))
# arg_nodes.sort(key=lambda x: x.LOC)
# arg_words = [x.ID for x in arg_nodes]
# head = obl_node.ID
oia_arg_node = oia_graph.add_words(obl_node.position)
oia_graph.add_argument(oia_adv_node, oia_verb_node, 1, mod=True)
oia_graph.add_argument(oia_adv_node, oia_arg_node, 2)
else:
if mark_children:
mark_node = mark_children[0]
oia_pred_node = oia_graph.add_words(mark_node.position)
oia_graph.add_argument(oia_pred_node,
oia_verb_node,
1,
mod=True)
oia_graph.add_argument(oia_pred_node, oia_adv_node, 2)
else:
oia_graph.add_mod(oia_adv_node, oia_verb_node)
def adv_ccomp(dep_graph: DependencyGraph, oia_graph: OIAGraph,
context: UD2OIAContext):
"""
:param dep_graph:
:param oia_graph:
:return:
"""
pattern = DependencyGraph()
# TODO: it seems that in UD labeling, adv is used instead of adj for noun
# verb_node = pattern.create_node(UPOS="VERB|NOUN|PROPN")
adv_node = pattern.create_node(UPOS="ADV|X|NOUN|PART") # part is for "not"
ccomp_node = pattern.create_node()
# pattern.add_dependency(verb_node, adv_node, r'advmod')
pattern.add_dependency(adv_node, ccomp_node, r"ccomp|xcomp")
patterns = []
for match in dep_graph.match(pattern):
# dep_verb_node = match[verb_node]
dep_adv_node = match[adv_node]
dep_ccomp_node = match[ccomp_node]
if oia_graph.has_relation(dep_adv_node, dep_ccomp_node):
continue
dep_case_nodes = [
n for n, l in
dep_graph.children(dep_ccomp_node,
filter=lambda n, l: "case" == l and dep_adv_node
.LOC < n.LOC < dep_ccomp_node.LOC)
]
if dep_case_nodes:
dep_case_nodes = continuous_component(dep_case_nodes,
dep_case_nodes[0])
predicate_nodes = [dep_adv_node] + dep_case_nodes
predicate_nodes.sort(key=lambda n: n.LOC)
else:
predicate_nodes = [dep_adv_node]
dep_subj_nodes = [
n for n, l in dep_graph.parents(dep_adv_node,
filter=lambda n, l: "advmod" == l
and n.UPOS in {"ADV", "X", "NOUN"})
]
if len(dep_subj_nodes) > 1:
raise Exception("Multiple subject")
elif len(dep_subj_nodes) > 0:
dep_subj_node = dep_subj_nodes[0]
else:
dep_subj_node = None
patterns.append([dep_subj_node, predicate_nodes, dep_ccomp_node])
for dep_subj_node, predicate_nodes, dep_ccomp_node in patterns:
if len(predicate_nodes) > 1:
new_pred_node = dep_graph.create_node(
ID=" ".join([x.ID for x in predicate_nodes]),
FORM=" ".join([x.FORM for x in predicate_nodes]),
LEMMA=" ".join([x.LEMMA for x in predicate_nodes]),
UPOS="ADV",
LOC=predicate_nodes[0].LOC)
new_pred_node.aux = True
dep_graph.replace_nodes(predicate_nodes, new_pred_node)
dep_graph.remove_dependency(dep_ccomp_node, new_pred_node)
else:
new_pred_node = predicate_nodes[0]
oia_pred_node = oia_graph.add_words(new_pred_node.position)
if dep_subj_node:
oia_subj_node = oia_graph.add_words(dep_subj_node.position)
oia_graph.add_argument(oia_pred_node, oia_subj_node, 1, mod=True)
else:
oia_ccomp_node = oia_graph.add_words(dep_ccomp_node.position)
oia_graph.add_argument(oia_pred_node, oia_ccomp_node, 2)
def object_relative_clause(dep_graph: DependencyGraph, oia_graph: OIAGraph,
context: UD2OIAContext):
"""
##### Object-extracted/referred relative clause #####
##### the person that Andy knows #####
:param sentence:
:return:
"""
pattern = DependencyGraph()
verb_node = DependencyGraphNode()
entity_node = DependencyGraphNode()
subj_node = DependencyGraphNode()
pattern.add_nodes([verb_node, entity_node, subj_node])
pattern.add_dependency(verb_node, subj_node, r'\w*subj\w*')
pattern.add_dependency(entity_node, verb_node, r'\w*acl:relcl\w*')
for match in dep_graph.match(pattern):
dep_entity_node = match[entity_node]
dep_subj_node = match[subj_node]
dep_verb_node = match[verb_node]
if dep_subj_node.LEMMA in {"what", "who", "which", "that"}:
continue
logger.debug("we found a objective relative clause")
logger.debug("entity: {0}".format(dep_entity_node))
logger.debug("subject: {0}".format(dep_subj_node))
logger.debug("verb: {0}".format(dep_verb_node))
if context.is_processed(dep_entity_node, dep_verb_node):
logger.debug("processed")
continue
context.processed(dep_verb_node, dep_subj_node)
context.processed(dep_entity_node, dep_verb_node)
oia_entity_node = oia_graph.add_words(dep_entity_node.position)
oia_verb_node = oia_graph.add_words(dep_verb_node.position)
oia_subj_node = oia_graph.add_words(dep_subj_node.position)
if oia_graph.has_relation(oia_entity_node, oia_verb_node):
logger.debug("has relation between entity and verb")
continue
oia_graph.add_argument(oia_verb_node, oia_subj_node, 1)
def __valid_ref(n, l):
return l == "ref" and dep_entity_node.LOC < n.LOC < dep_verb_node.LOC
ref_nodes = list(n for n, l in dep_graph.children(dep_entity_node,
filter=__valid_ref))
ref_nodes.sort(key=lambda x: x.LOC)
if ref_nodes:
ref_node = ref_nodes[-1]
oia_ref_node = oia_graph.add_words(ref_node.position)
oia_graph.add_ref(oia_entity_node, oia_ref_node)
logger.debug("we are coping with ref between:")
logger.debug(dep_verb_node)
logger.debug(ref_node)
ref_relation = dep_graph.get_dependency(dep_verb_node, ref_node)
case_nodes = list(n for n, l in dep_graph.children(
ref_node, filter=lambda n, l: "case" in l))
case_nodes.sort(key=lambda x: x.LOC)
if ref_relation:
if case_nodes:
# with which xxxx, the with will become the root pred
case_node = case_nodes[-1]
oia_case_node = oia_graph.add_words(case_node.position)
oia_graph.add_argument(oia_case_node,
oia_verb_node,
1,
mod=True)
oia_graph.add_argument(oia_case_node, oia_ref_node, 2)
oia_graph.add_mod(oia_verb_node, oia_entity_node)
else:
if "obj" in ref_relation:
oia_graph.add_argument(oia_verb_node, oia_ref_node, 2)
elif ref_relation == "advmod":
oia_graph.add_mod(oia_ref_node, oia_verb_node)
else:
raise Exception(
"unknown relation: {}".format(ref_relation))
# oia_graph.add_argument(oia_verb_node, oia_entity_node, 2, mod=True)
oia_graph.add_argument(oia_verb_node, oia_subj_node, 1)
oia_graph.add_argument(oia_verb_node, oia_entity_node, 2, mod=True)
rels = dep_graph.get_dependency(dep_entity_node, dep_verb_node)
#if rels.endswith("obj"):
for node, l in dep_graph.children(dep_verb_node):
if l == "ccomp":
oia_ccomp_node = oia_graph.add_words(node.position)
oia_graph.add_argument(oia_verb_node, oia_ccomp_node, 3)
def simple_clause(dep_graph: DependencyGraph, oia_graph: OIAGraph,
context: UD2OIAContext):
"""
:TODO badcase Attached is a new link
:param dep_graph:
:param oia_graph:
:return:
"""
# for node in dep_graph.nodes():
# print('node:',node)
for pred_node in dep_graph.nodes(
filter=lambda x: x.UPOS in {"VERB", "ADJ", "NOUN", "AUX", "ADV"}):
# ADJ is for "With the demand so high,"
# NOUN is for "X the best for Y"
# AUX is for have in "I have a cat"
# print('pred_node', pred_node)
expl = None
nsubj = None
subj = None
objs = []
for child, rel in dep_graph.children(pred_node):
# print('child node:', child)
# print('child rel:', rel)
if ('nsubj' in rel or "csubj" in rel): # and ":xsubj" not in rel:
nsubj = child
elif rel.startswith('obj'):
objs.append((child, 1))
elif rel.startswith('iobj'):
objs.append((child, 0))
elif 'ccomp' in rel or "xcomp" in rel: # and child.UPOS == "VERB":
objs.append((child, 2))
elif "expl" in rel:
expl = child
if nsubj:
# if pred_node.LOC < nsubj.LOC:
# # TODO: in what situation?
# objs.insert(0, nsubj)
# else:
subj = nsubj
if expl: # It VERB subj that # VERB subj it that
if expl.LOC < pred_node.LOC:
subj = expl
objs.insert(0, (subj, -1))
else: # expl.LOC > pred_node.LOC:
objs.insert(0, (expl, -1))
if not subj and not objs:
continue
pred_node = oia_graph.add_words(pred_node.position)
if not pred_node:
continue
arg_index = 1
if subj is not None:
if not oia_graph.has_relation(pred_node, subj):
subj_node = oia_graph.add_words(subj.position)
oia_graph.add_argument(pred_node, subj_node, arg_index)
arg_index += 1
objs.sort(key=lambda x: x[1])
for obj, weight in objs:
# print('obj:',obj)
oia_obj_node = oia_graph.add_words(obj.position)
# def __sconj_node(n):
# # that conj is ommited
# return (n.UPOS == "SCONJ" and n.LEMMA not in {"that"})
def __adv_question_node(n):
return ((n.UPOS == "ADV"
and n.LEMMA in {"when", "where", "how", "whether"}))
#
# def __pron_question_node(n):
# return (n.UPOS == "PRON" and n.LEMMA in {"what", "who", "which"})
# def __interested_node2(n):
# # that conj is ommited
# return (n.UPOS == "PART")
# sconj_nodes = [n for n, l in dep_graph.children(obj,
# filter=lambda n,l: l == "mark" and __sconj_node(n))]
adv_question_nodes = [
n for n, l in dep_graph.children(
obj,
filter=lambda n, l: l == "mark" and __adv_question_node(n))
]
# subj_question_nodes = [n for n, l in dep_graph.children(obj,
# filter=lambda n,l: "subj" in l and __pron_question_node(n))]
#
# obj_question_nodes = [n for n, l in dep_graph.children(obj,
# filter=lambda n,
# l: ("obj" in l or "comp") in l and __pron_question_node(
# n))]
# nodes_of_interests2 = [n for n, l in dep_graph.children(obj,
# filter=lambda n,l: l == "advmod" and __interested_node2(n))]
# print('nodes_of_interests:', nodes_of_interests)
# if nodes_of_interests2:
# assert len(nodes_of_interests2) == 1
# interest_node = nodes_of_interests2[0]
# oia_interest_node = oia_graph.add_word_with_head(interest_node.LOC)
# oia_graph.add_argument(pred_node, oia_interest_node, arg_index)
# # oia_graph.add_function(oia_interest_node, oia_obj_node)
# arg_index += 1
# oia_graph.add_argument(oia_interest_node, oia_obj_node, arg_index)
# arg_index += 1
if adv_question_nodes:
assert len(adv_question_nodes) == 1
interest_node = adv_question_nodes[0]
oia_interest_node = oia_graph.add_words(interest_node.position)
oia_graph.add_argument(pred_node, oia_interest_node, arg_index)
oia_graph.add_function(oia_interest_node, oia_obj_node)
else:
if not oia_graph.has_relation(pred_node, obj):
oia_graph.add_argument(pred_node, oia_obj_node, arg_index)
arg_index += 1
pattern = DependencyGraph()
parent_pred = pattern.create_node()
child_pred = pattern.create_node()
question_word = pattern.create_node(LEMMA=r'what|who')
pattern.add_dependency(parent_pred, child_pred,
r'subj|nsubj|iobj|obj|xcomp|ccomp')
pattern.add_dependency(parent_pred, question_word,
r'subj|nsubj|iobj|obj|xcomp|ccomp')
pattern.add_dependency(child_pred, question_word,
r'subj|nsubj|iobj|obj|xcomp|ccomp')
for match in dep_graph.match(pattern):
dep_parent_pred, dep_child_pred, dep_question_word = [
match[x] for x in [parent_pred, child_pred, question_word]
]
oia_parent_pred, oia_child_pred, oia_question_word = [
oia_graph.add_words(x.position)
for x in [dep_parent_pred, dep_child_pred, dep_question_word]
]
oia_question_word.is_func = True
rel = oia_graph.get_edge(oia_child_pred, oia_question_word)
oia_graph.remove_relation(oia_child_pred, oia_question_word)
oia_graph.remove_relation(oia_parent_pred, oia_child_pred)
oia_graph.add_relation(oia_question_word, oia_child_pred,
"mod_by:" + rel.label)
def oblique_with_prep(dep_graph, oia_graph: OIAGraph, context: UD2OIAContext):
"""
:param dep_graph:
:param oia_graph:
:return:
"""
# cut X by a knife
pattern = DependencyGraph()
verb_node = DependencyGraphNode(UPOS="VERB|ADJ|ADV|NOUN|X|PROPN|PRON")
# adj is for "has more on "
# adv is for "south of XXXX"
prep_node = DependencyGraphNode(UPOS=r"PRON|ADP|VERB|SCONJ|ADJ")
# verb is for including/according, adj is for "prior to"
oblique_node = DependencyGraphNode()
pattern.add_node(verb_node)
pattern.add_node(prep_node)
pattern.add_node(oblique_node)
pattern.add_dependency(verb_node, oblique_node, r'\bobl')
pattern.add_dependency(oblique_node, prep_node, r"case|mark")
for match in dep_graph.match(pattern):
dep_prep_node = match[prep_node]
dep_verb_node = match[verb_node]
dep_oblique_node = match[oblique_node]
if oia_graph.has_relation(dep_verb_node, dep_oblique_node):
continue
oblique_edge = dep_graph.get_dependency(dep_verb_node,
dep_oblique_node)
oblique_cases = oblique_edge.values()
# if dep_prop_node.LEMMA.lower() not in cases:
# continue
prop_nodes = [
x for x, l in dep_graph.children(
dep_oblique_node,
filter=lambda n, l: l == "case" or l == "mark")
]
connected_case_nodes = continuous_component(prop_nodes, dep_prep_node)
predicate = tuple([x.ID for x in connected_case_nodes])
head_node = None
for node in connected_case_nodes:
if node.LEMMA.lower() in oblique_cases:
head_node = node
if not head_node:
head_node = connected_case_nodes[-1]
pred_node = oia_graph.add_words(head_node.position)
arg1_node = oia_graph.add_words(dep_verb_node.position)
arg2_node = oia_graph.add_words(dep_oblique_node.position)
oia_graph.add_argument(pred_node, arg1_node, 1, mod=True)
oia_graph.add_argument(pred_node, arg2_node, 2)
