def fix_rnr(self, rnr, g):
# G is the node dominating all the conjuncts
rnr_tags = []
for node, ctx in find_all(
g, r'/:c/a', with_context=True):
for rnr in find_all(
node, r'^/\*RNR\*/'):
rnr_tags.append(get_trace_index_from_tag(rnr.lex))
for index in rnr_tags:
for node, ctx in find_all(
g,
r'*=PP < { *=P < { *=T < ^/\*RNR\*%s/ $ *=S } }' % index,
with_context=True
):
inherit_tag(ctx.s, ctx.p)
self.fix_object_gap(ctx.pp, ctx.p, ctx.t, ctx.s)
self.fix_categories_starting_from(ctx.s, g)
# This breaks with the IP (LC CC LC) case in 9:19(11) -- last_conjunct returns None
# because the last conjunct has been shrunk
last_conjunct = list(find_first(g, r'/:c/a', left_to_right=False))
args = []
# Here, we uniquify the rnr tags so that we excise each shared argument only once
for index in set(rnr_tags):
# find_first, because we only want to find one match, the shallowest.
# cf 7:27(10), if NP-OBJ-2(NN NP-OBJ-2(JJ NN)), then we only want to identify
# one matching node for index -2 -- the shallowest -- and not two.
for node, ctx in find_first(
last_conjunct[0],
r'*=P < { /%s/a=T $ *=S }' % index,
with_context=True
):
args.append(ctx.t)
# Note: last_conjunct may be disconnected from
# the tree by replace_kid (when ctx.p == last_conjunct)
replace_kid(ctx.p.parent, ctx.p, ctx.s)
self.fix_categories_starting_from(ctx.s, g)
# Because the find_all which retrieved the args is an in-order left-to-right traversal, it will find
# shallower nodes before deeper nodes. Therefore, if a verb has two args V A1 A2, the _args_ list will
# contain [A2, A1] because A2 is shallower (further from the head) than A1.
# We reverse the list of args, so that args are re-attached from the inside out (starting from A1).
# args.reverse()
new_g = g
for arg in args:
new_g = Node(new_g.tag, [new_g, arg], new_g.category.left, head_index=0)
arg.parent = new_g
replace_kid(g.parent, g, new_g)
def fix_rnr(self, rnr, g):
# G is the node dominating all the conjuncts
rnr_tags = []
for node, ctx in find_all(g, r'/:c/a', with_context=True):
for rnr in find_all(node, r'^/\*RNR\*/'):
rnr_tags.append(get_trace_index_from_tag(rnr.lex))
for index in rnr_tags:
for node, ctx in find_all(
g,
r'*=PP < { *=P < { *=T < ^/\*RNR\*%s/ $ *=S } }' % index,
with_context=True):
inherit_tag(ctx.s, ctx.p)
self.fix_object_gap(ctx.pp, ctx.p, ctx.t, ctx.s)
self.fix_categories_starting_from(ctx.s, g)
# This breaks with the IP (LC CC LC) case in 9:19(11) -- last_conjunct returns None
# because the last conjunct has been shrunk
last_conjunct = list(find_first(g, r'/:c/a', left_to_right=False))
args = []
# Here, we uniquify the rnr tags so that we excise each shared argument only once
for index in set(rnr_tags):
# find_first, because we only want to find one match, the shallowest.
# cf 7:27(10), if NP-OBJ-2(NN NP-OBJ-2(JJ NN)), then we only want to identify
# one matching node for index -2 -- the shallowest -- and not two.
for node, ctx in find_first(last_conjunct[0],
r'*=P < { /%s/a=T $ *=S }' % index,
with_context=True):
args.append(ctx.t)
# Note: last_conjunct may be disconnected from
# the tree by replace_kid (when ctx.p == last_conjunct)
replace_kid(ctx.p.parent, ctx.p, ctx.s)
self.fix_categories_starting_from(ctx.s, g)
# Because the find_all which retrieved the args is an in-order left-to-right traversal, it will find
# shallower nodes before deeper nodes. Therefore, if a verb has two args V A1 A2, the _args_ list will
# contain [A2, A1] because A2 is shallower (further from the head) than A1.
# We reverse the list of args, so that args are re-attached from the inside out (starting from A1).
# args.reverse()
new_g = g
for arg in args:
new_g = Node(new_g.tag, [new_g, arg],
new_g.category.left,
head_index=0)
arg.parent = new_g
replace_kid(g.parent, g, new_g)
def get_first(*args, **kwargs):
'''Returns one tgrep result, or None if no nodes match.'''
try:
return find_first(*args, **kwargs).next()
except StopIteration:
return None
