def process_lex_node_reprS(node, compress=False, gloss_iter=None, **kwargs):
if compress:
gloss = gloss_iter.next() if gloss_iter else None
lex = r'\cjk{%s}' % ' '.join(
latex_tag_for(leaf) for leaf in text(node))
if gloss:
# lex = r'\glosE{%s}{%s}' % (lex, gloss)
return r'\ensuremath{\shortstack{\cf{%s}\smallskip\\ %s \medskip\\ \textit{%s} }}' % (
sanitise_category(str(node.category)), lex, gloss)
else:
return "\\cf{%s} %s %s" % (sanitise_category(str(
node.category)), "\\edge[roof]; " if node.count() > 1 else '',
lex)
if node.is_leaf():
global Snode_id
lex = latex_tag_for(node.lex)
gloss = gloss_iter.next() if gloss_iter else None
if gloss:
# lex = r'\glosE{%s}{%s}' % (lex, gloss)
result = r'\node(r%s){\ensuremath{\shortstack{\cf{%s}\smallskip\\ %s \medskip\\ \textit{%s}}}};' % (
Snode_id, sanitise_category(str(node.category)), lex, gloss)
else:
result = "\\node(r%s){\\cf{%s} %s};" % (
Snode_id, sanitise_category(str(node.category)), lex)
Snode_id += 1
return result
else:
return "\\cf{%s}" % sanitise_category(str(node.category))
def process_lex_node_reprR(node, compress=False, gloss_iter=None, **kwargs):
if compress:
gloss = gloss_iter.next() if gloss_iter else None
lex = r'\cjk{%s}' % ' '.join(
latex_tag_for(leaf) for leaf in text(node))
if gloss:
lex = r'\glosE{%s}{%s}' % (lex, gloss)
return "\\cf{%s} %s %s" % (sanitise_category(str(
node.category)), "\\edge[roof]; " if node.count() > 1 else '', lex)
if node.is_leaf():
global Rnode_id
lex = latex_tag_for(node.lex)
gloss = gloss_iter.next() if gloss_iter else None
if gloss:
lex = r'\glosE{%s}{%s}' % (lex, gloss)
result = "\\node(r%s){\\cf{%s} %s};" % (
Rnode_id, sanitise_category(str(node.category)), lex)
Rnode_id += 1
return result
else:
return "\\cf{%s}" % sanitise_category(str(node.category))
def process_lex_node_repr(node, compress=False, gloss_iter=None, **kwargs):
if compress:
gloss = gloss_iter.next() if gloss_iter else None
lex = r'\cjk{%s}' % ' '.join(
latex_tag_for(leaf) for leaf in text(node))
if gloss:
if node.count() > 1:
return r'\PTag{%s} \edge[roof]; \ensuremath{\raisebox{-1.4\baselineskip}{\shortstack{{%s} \\ \\ \TGloss{%s}}}}' % (
node.tag, lex, gloss)
else:
return r'\PTag{%s} \ensuremath{\raisebox{-1\baselineskip}{\shortstack{{%s} \\ \\ \TGloss{%s}}}}' % (
node.tag, lex, gloss)
return "\\PTag{%s} %s %s" % (node.tag, "\\edge[roof]; "
if node.count() > 1 else '', lex)
if node.is_leaf():
gloss = gloss_iter.next() if gloss_iter else None
lex = latex_tag_for(node.lex)
if gloss:
return r'\PTag{%s} \ensuremath{\raisebox{-1\baselineskip}{\shortstack{{%s} \\ \\ \TGloss{%s}}}}' % (
node.tag, lex, gloss)
else:
return r'\PTag{%s}{%s}' % (node.tag, lex)
else:
return "\\PTag{%s}" % node.tag
def process_lex_node_reprR(node, compress=False, gloss_iter=None, **kwargs):
if compress:
gloss = gloss_iter.next() if gloss_iter else None
lex = r'\cjk{%s}' % ' '.join(latex_tag_for(leaf) for leaf in text(node))
if gloss:
lex = r'\glosE{%s}{%s}' % (lex, gloss)
return "\\cf{%s} %s %s" % (
sanitise_category(str(node.category)),
"\\edge[roof]; " if node.count()>1 else '',
lex)
if node.is_leaf():
global Rnode_id
lex = latex_tag_for(node.lex)
gloss = gloss_iter.next() if gloss_iter else None
if gloss:
lex = r'\glosE{%s}{%s}' % (lex, gloss)
result = "\\node(r%s){\\cf{%s} %s};" % (Rnode_id, sanitise_category(str(node.category)), lex)
Rnode_id += 1
return result
else:
return "\\cf{%s}" % sanitise_category(str(node.category))
def process_lex_node_repr(node, compress=False, gloss_iter=None, **kwargs):
if compress:
gloss = gloss_iter.next() if gloss_iter else None
lex = r'\cjk{%s}' % ' '.join(latex_tag_for(leaf) for leaf in text(node))
if gloss:
if node.count() > 1:
return r'\PTag{%s} \edge[roof]; \ensuremath{\raisebox{-1.4\baselineskip}{\shortstack{{%s} \\ \\ \TGloss{%s}}}}' % (node.tag, lex, gloss)
else:
return r'\PTag{%s} \ensuremath{\raisebox{-1\baselineskip}{\shortstack{{%s} \\ \\ \TGloss{%s}}}}' % (node.tag, lex, gloss)
return "\\PTag{%s} %s %s" % (
node.tag,
"\\edge[roof]; " if node.count()>1 else '',
lex)
if node.is_leaf():
gloss = gloss_iter.next() if gloss_iter else None
lex = latex_tag_for(node.lex)
if gloss:
return r'\PTag{%s} \ensuremath{\raisebox{-1\baselineskip}{\shortstack{{%s} \\ \\ \TGloss{%s}}}}' % (node.tag, lex, gloss)
else:
return r'\PTag{%s}{%s}' % (node.tag, lex)
else:
return "\\PTag{%s}" % node.tag
def process_lex_node_reprS(node, compress=False, gloss_iter=None, **kwargs):
if compress:
gloss = gloss_iter.next() if gloss_iter else None
lex = r'\cjk{%s}' % ' '.join(latex_tag_for(leaf) for leaf in text(node))
if gloss:
# lex = r'\glosE{%s}{%s}' % (lex, gloss)
return r'\ensuremath{\shortstack{\cf{%s}\smallskip\\ %s \medskip\\ \textit{%s} }}' % (
sanitise_category(str(node.category)), lex, gloss)
else:
return "\\cf{%s} %s %s" % (
sanitise_category(str(node.category)),
"\\edge[roof]; " if node.count()>1 else '',
lex)
if node.is_leaf():
global Snode_id
lex = latex_tag_for(node.lex)
gloss = gloss_iter.next() if gloss_iter else None
if gloss:
# lex = r'\glosE{%s}{%s}' % (lex, gloss)
result = r'\node(r%s){\ensuremath{\shortstack{\cf{%s}\smallskip\\ %s \medskip\\ \textit{%s}}}};' % (
Snode_id, sanitise_category(str(node.category)), lex, gloss)
else:
result = "\\node(r%s){\\cf{%s} %s};" % (Snode_id, sanitise_category(str(node.category)), lex)
Snode_id += 1
return result
else:
return "\\cf{%s}" % sanitise_category(str(node.category))
def accept_derivation(self, bundle):
root = bundle.derivation
for (pattern, name) in self.Patterns:
# print pattern, name
for node, ctx in find_all(root, pattern, with_context=True):
toks = self.toks.get(bundle.label(), None)
cn_toks = text(root)
trace = ctx.t
if not (toks and cn_toks):
print >>sys.stderr, bundle.label()
if trace:
self.results[name].not_discharged += 1
alignment = align(cn_toks, toks)
if trace is not None:
trace_index = get_index_of_leaf(root, trace)
if alignment.get(trace_index, None) is not None:
self.results[name].not_discharged += 1
else:
self.results[name].discharged += 1
else:
print >>sys.stderr, "t was not bound to a trace node"
def accept_derivation(self, bundle):
root = bundle.derivation
for (pattern, name) in self.Patterns:
# print pattern, name
for node, ctx in find_all(root, pattern, with_context=True):
toks = self.toks.get(bundle.label(), None)
cn_toks = text(root)
trace = ctx.t
if not (toks and cn_toks):
print >> sys.stderr, bundle.label()
if trace:
self.results[name].not_discharged += 1
alignment = align(cn_toks, toks)
if trace is not None:
trace_index = get_index_of_leaf(root, trace)
if alignment.get(trace_index, None) is not None:
self.results[name].not_discharged += 1
else:
self.results[name].discharged += 1
else:
print >> sys.stderr, "t was not bound to a trace node"
def insert_quote(self, deriv, tokens, at, quote, quote_type):
'''Performs the actual quote insertion. Returns the root of the newly quoted derivation (which may differ
from the root of the input derivation).'''
if quote == "begin": direction = "forwards"
elif quote == "end": direction = "backwards"
double = (quote_type == "``")
node = get_leaf(deriv, at, direction)
if (at is not None) and node:
if quote == "end": # Process absorbed punctuation
if self.punct_class:
node = self.punct_class.process_punct(deriv, node, at)
if node and is_sublist(smaller=text(node), larger=tokens):
attachment_node = node
while (attachment_node.parent and is_sublist(smaller=text(attachment_node.parent),
larger=tokens)):
attachment_node = attachment_node.parent
prev_parent = attachment_node.parent
was_left_child = (attachment_node.parent) and (attachment_node.parent.lch is attachment_node)
if quote == "begin":
new_node = Node(attachment_node.cat, 0, 2,
parent=None, lch=make_open_quote_leaf(None, double),
rch=attachment_node)
elif quote == "end":
new_node = Node(attachment_node.cat, 0, 2,
parent=None, lch=attachment_node,
rch=make_closed_quote_leaf(None, double))
if prev_parent:
if was_left_child:
prev_parent.lch = new_node
else:
prev_parent.rch = new_node
else:
return new_node # Replace the old root
return deriv
def process_lex_node_reprL(node, compress=False, **kwargs):
if compress:
lex = r'\cjk{%s}' % ' '.join(
latex_tag_for(leaf) for leaf in text(node))
return "\\PTag{%s} %s %s" % (node.tag, "\\edge[roof]; "
if node.count() > 1 else '', lex)
if node.is_leaf():
if is_trace(node.tag):
result = "\\node{\\PTag{%s} %s};" % (node.tag,
latex_tag_for(node.lex))
else:
global Lnode_id
result = "\\node(l%s){\\PTag{%s} %s};" % (Lnode_id, node.tag,
latex_tag_for(node.lex))
Lnode_id += 1
return result
else:
return "\\PTag{%s}" % node.tag
def process_lex_node_reprL(node, compress=False, **kwargs):
if compress:
lex = r'\cjk{%s}' % ' '.join(latex_tag_for(leaf) for leaf in text(node))
return "\\PTag{%s} %s %s" % (
node.tag,
"\\edge[roof]; " if node.count()>1 else '',
lex)
if node.is_leaf():
if is_trace(node.tag):
result = "\\node{\\PTag{%s} %s};" % (node.tag, latex_tag_for(node.lex))
else:
global Lnode_id
result = "\\node(l%s){\\PTag{%s} %s};" % (Lnode_id, node.tag, latex_tag_for(node.lex))
Lnode_id += 1
return result
else:
return "\\PTag{%s}" % node.tag
def text(self):
'''Returns a list of text tokens corresponding to the leaves under this node.'''
return traverse.text(self)
def text(self):
'''Returns a list of text tokens corresponding to the leaves under this node.'''
return traverse.text(self)
