def sdfprocess(rvdata, partidx):
os.environ["MALT_PARSER"] = "/home/cosmo/Dropbox/Purdue/nlp/maltparser-1.8"
parser = MaltParser(
mco='engmalt.poly-1.7',
working_dir='/home/cosmo/Dropbox/Purdue/nlp/maltparser-1.8',
additional_java_args=['-Xmx5000m'])
sdfdata = []
cnn = 1
# demo()
print parser.raw_parse("I am a student.")
for eg in rvdata:
if cnn % 100 == 0:
print "%f%% of document %d finished" % (cnn * 100 * 1.0 /
len(rvdata), partidx + 1)
cmt = eg[3].decode('utf-8') #3 is the idx of comment
sentences = nltk.sent_tokenize(cmt)
sdfparsed = [parser.raw_parse(sentence) for sentence in sentences]
sdfdata.append(eg[:3] + [sdfparsed])
# print cnn
print sdfparsed
# print sdfdata
cnn += 1
if cnn > 5: break
return sdfdata
def dep_parse(self, sentence='every cat leaves'):
#Lazy-initialize the depparser
if self.depparser is None:
self.depparser = MaltParser(tagger=self.get_pos_tagger())
if not self.depparser._trained:
self.train_depparser()
return [self.depparser.parse(sentence, verbose=self.verbose)]
def parse_sents(self, sents):
os.environ['MALT_PARSER'] = config['MALT_WORKING_DIR'] + '/malt.jar'
parser = NltkMaltParser(working_dir=config['MALT_WORKING_DIR'],
mco=config['MALT_MCO'],
additional_java_args=config['MALT_JAVA_ARGS'],
tagger=self.tagger)
graphs = [list(graph)[0] for graph in parser.parse_sents(sents)]
# Sometimes, there is an empty graph at the end of the list. Delete it.
if len(graphs) > 0 and len(graphs[-1].nodes) == 1:
del graphs[-1]
return graphs
def parse_sents(self, sents):
os.environ['MALT_PARSER'] = config['MALT_WORKING_DIR'] + '/malt.jar'
parser = NltkMaltParser(working_dir=config['MALT_WORKING_DIR'],
mco=config['MALT_MCO'],
additional_java_args=config['MALT_JAVA_ARGS'],
tagger=self.tagger)
graphs = [list(graph)[0] for graph in parser.parse_sents(sents)]
# Sometimes, there is an empty graph at the end of the list. Delete it.
if len(graphs) > 0 and len(graphs[-1].nodes) == 1:
del graphs[-1]
return graphs
class Parser(object):
'''Write something here.'''
nouns = defaultdict(set)
verbs = defaultdict(set)
def __init__(self, all_modules, malt_working_dir=None, malt_mco=None):
'''...'''
if not malt_working_dir:
import os
malt_working_dir = os.environ['MALTPARSERHOME']
if not malt_mco:
malt_mco = 'engmalt.linear-1.7'
self._parser = MaltParser(working_dir=malt_working_dir, mco=malt_mco, additional_java_args=['-Xmx512m'])
for module in all_modules:
for noun in module.nouns:
self.nouns[noun].add(module)
for verb in module.verbs:
self.verbs[verb].add(module)
def _is_verb(self, word):
return word in self.verbs
def _is_noun(self, word):
return word in self.nouns
def _check_command(self, noun, verb):
if not noun or not verb:
return False
print 'Noun:', noun
print 'Verb:', verb
return self.nouns[noun] & self.verbs[verb]
def parse(self, command):
'''...'''
words = word_tokenize(command)
pos = pos_tag(words)
graph = self._parser.tagged_parse(pos)
tree = graph.tree()
print "Parse Tree: ", tree
c_noun = None
c_verb = None
for subtree in tree.subtrees():
words = [x for x in subtree if not isinstance(x, Tree)] + [subtree.node]
for x in words:
# TODO: Use the tagged sentence so that we can resolve this better
if self._is_verb(x):
c_verb = x
elif self._is_noun(x):
c_noun = x
command_modules = self._check_command(c_noun, c_verb)
if command_modules:
yield Command(command, c_noun, c_verb, [x for x in words if x not in (c_noun, c_verb)])
c_noun = None
def setup_module():
import pytest
from nltk.parse.malt import MaltParser
try:
depparser = MaltParser("maltparser-1.7.2")
except LookupError as e:
pytest.skip("MaltParser is not available")
def setup_module(module):
from nose import SkipTest
from nltk.parse.malt import MaltParser
try:
depparser = MaltParser("maltparser-1.7.2")
except LookupError:
raise SkipTest("MaltParser is not available")
def demo():
discourse_demo()
tagger = RegexpTagger([('^(chases|runs)$', 'VB'), ('^(a)$', 'ex_quant'),
('^(every)$', 'univ_quant'), ('^(dog|boy)$', 'NN'),
('^(he)$', 'PRP')])
depparser = MaltParser(tagger=tagger)
drt_discourse_demo(
DrtGlueReadingCommand(remove_duplicates=False, depparser=depparser))
def mltprocess(tp, path, filenamels, docid):
parser=MaltParser(working_dir='/home/cosmo/Dropbox/Purdue/nlp/maltparser-1.8/maltparser-1.8.jar', mco='engmalt.poly-1.7.mco', additional_java_args='-mx5000m')
sdfdata = []
for i in range(len(filenamels)):
if (i+1)%100 == 0: print "%f%% of document %d of %s finished" % ((i+1)*100*1.0/len(filenamels), docid, tp)
filename = filenamels[i]
h = open(path + filename, 'r')
lines = h.readlines()
h.close()
headraw, bodyraw = preprocess(lines[0]), preprocess(lines[1])
sentences = [headraw] + nltk.sent_tokenize(bodyraw)
sdfparsed = [parser.raw_parse(sentence) for sentence in sentences]
sdfdata.append(sdfparsed)
# print sdfparsed
# print sdfdata
# if i > 5: break
return sdfdata
def setup_module():
import pytest
from nltk.parse.malt import MaltParser
try:
depparser = MaltParser()
except (AssertionError, LookupError) as e:
pytest.skip("MaltParser is not available")
def _init_glue(self):
tagger = RegexpTagger([
('^(David|Mary|John)$', 'NNP'),
('^(walks|sees|eats|chases|believes|gives|sleeps|chases|persuades|tries|seems|leaves)$',
'VB'), ('^(go|order|vanish|find|approach)$', 'VB'),
('^(a)$', 'ex_quant'), ('^(every)$', 'univ_quant'),
('^(sandwich|man|dog|pizza|unicorn|cat|senator)$', 'NN'),
('^(big|gray|former)$', 'JJ'), ('^(him|himself)$', 'PRP')
])
depparser = MaltParser(tagger=tagger)
self._glue = DrtGlue(depparser=depparser, remove_duplicates=False)
def demo():
discourse_demo()
tagger = RegexpTagger([
("^(chases|runs)$", "VB"),
("^(a)$", "ex_quant"),
("^(every)$", "univ_quant"),
("^(dog|boy)$", "NN"),
("^(he)$", "PRP"),
])
depparser = MaltParser(tagger=tagger)
drt_discourse_demo(
DrtGlueReadingCommand(remove_duplicates=False, depparser=depparser))
class MaltParser(DependencyParserWrapper):
# currently this can only be run from the malt parser directory
# TODO: make more general/easy to run
def __init__(self, version = "maltparser-1.9.2", model = "engmalt.linear-1.7.mco"):
super().__init__()
root = os.getcwd()
version_path = os.path.join(root, "schemata", "parse", "maltparser", version )
model_path =os.path.join(root, "schemata", "parse", "maltparser", model )
self.base = MP(version_path, model_path)
def get_spans(self, sent):
dparse = self.base.parse_one(sent.split())
heads = [node['head'] for _, node in sorted(dparse.nodes.items())][1:]
tree = DependencyParserWrapper.head_to_tree(heads)
non_singletons = DependencyParserWrapper.compute_spans(tree)
singletons = [(n, n+1) for n in range(len(heads))]
return set(non_singletons) | set(singletons)
def __init__(self, all_modules, malt_working_dir=None, malt_mco=None):
'''...'''
if not malt_working_dir:
import os
malt_working_dir = os.environ['MALTPARSERHOME']
if not malt_mco:
malt_mco = 'engmalt.linear-1.7'
self._parser = MaltParser(working_dir=malt_working_dir, mco=malt_mco, additional_java_args=['-Xmx512m'])
for module in all_modules:
for noun in module.nouns:
self.nouns[noun].add(module)
for verb in module.verbs:
self.verbs[verb].add(module)
def demo(show_example=-1):
examples = ['David sees Mary',
'David eats a sandwich',
'every man chases a dog',
'every man believes a dog sleeps',
'John gives David a sandwich',
'John chases himself',
# 'John persuades David to order a pizza',
# 'John tries to go',
# 'John tries to find a unicorn',
# 'John seems to vanish',
# 'a unicorn seems to approach',
'every big cat leaves',
'every gray cat leaves',
'every big gray cat leaves',
'a former senator leaves']
print '============== DEMO =============='
tagger = RegexpTagger(
[('^(David|Mary|John)$', 'NNP'),
('^(sees|eats|chases|believes|gives|sleeps|chases|persuades|tries|seems|leaves)$', 'VB'),
('^(go|order|vanish|find|approach)$', 'VB'),
('^(a)$', 'ex_quant'),
('^(every)$', 'univ_quant'),
('^(sandwich|man|dog|pizza|unicorn|cat|senator)$', 'NN'),
('^(big|gray|former)$', 'JJ'),
('^(him|himself)$', 'PRP')
])
depparser = MaltParser(tagger=tagger)
glue = Glue(depparser=depparser, verbose=False)
for (i, sentence) in enumerate(examples):
if i==show_example or show_example==-1:
print '[[[Example %s]]] %s' % (i, sentence)
for reading in glue.parse_to_meaning(sentence):
print reading.simplify()
print ''
#!/usr/bin/env python
from nltk.parse.malt import MaltParser
parser = MaltParser('maltparser-1.8.1','espmalt-1.0.mco')
txt="This is a test sentence"
parser.train_from_file('Tibidabo_Treebank.txt')
parser.raw_parse(txt)
import sys
from nltk.parse.malt import MaltParser
PATH_TO_MALTPARSER = "maltparser-1.9.2"
PATH_TO_MODEL = "kaist-conll.mco"
def print_usage():
print("usage: $ python3 parser.py <input text>")
if __name__ == '__main__':
argv = sys.argv[1:]
argc = len(sys.argv)
if (argc != 2):
print_usage()
sys.exit()
user_input = argv[0]
tokens = user_input.split()
mp = MaltParser(PATH_TO_MALTPARSER, PATH_TO_MODEL)
graph = mp.parse_one(tokens).tree()
print(graph)
def get_feature_names(pairs):
feature_names = []
c_vect = CountVectorizer(min_df=5, ngram_range=(1,3), tokenizer=word_tokenize)
pos_vect = CountVectorizer(tokenizer=iterate_pos, ngram_range=(1,3), lowercase=False)
mp = MaltParser("/home/lena/opt/maltparser-1.9.2","/home/lena/opt/russian.mco")
model_d = Doc2Vec.load('vec/model_d.w2v')
model_w = Word2Vec.load('vec/model_w.w2v')
DataDict = {'edu1_position': [],
'edu2_position': [],
'edu1_endsent': [],
'edu1_startsent': [],
'edu2_endsent': [],
'edu2_startsent': [],
'edu1_len': [],
'edu2_len': [],
'same_tokens': [],
'distance': [],
'attribution1': [],
'cause-effect1': [],
'concession1': [],
'condition1': [],
'contrast1': [],
'elaboration1': [],
'joint1': [],
'purpose1' :[],
'attribution2': [],
'cause-effect2': [],
'concession2': [],
'condition2': [],
'contrast2': [],
'elaboration2': [],
'joint2': [],
'purpose2' :[]}
for pair in pairs:
markers_dict1 = has_markers(pair.edu1.lemmatized_tokens)
markers_dict2 = has_markers(pair.edu2.lemmatized_tokens)
DataDict['edu1_position'].append(int(pair.edu1.position))
DataDict['edu2_position'].append(int(pair.edu2.position))
DataDict['edu1_endsent'].append(int(pair.edu1.sentence_end))
DataDict['edu2_endsent'].append(int(pair.edu2.sentence_end))
DataDict['edu1_startsent'].append(int(pair.edu1.sentence_start))
DataDict['edu2_startsent'].append(int(pair.edu2.sentence_start))
DataDict['edu1_len'].append(len(pair.edu1.tokens))
DataDict['edu2_len'].append(len(pair.edu2.tokens))
# количество совпадающих токенов (леммы)
DataDict['same_tokens'].append(len(set(pair.edu1.lemmatized_tokens).intersection(
pair.edu2.lemmatized_tokens)))
DataDict['distance'].append(int(pair.edu2.position)-int(pair.edu1.position)-1)
for rel_name in ['attribution','cause-effect','concession','condition','contrast','elaboration','joint','purpose']:
DataDict[rel_name+'1'].append(markers_dict1[rel_name])
DataDict[rel_name+'2'].append(markers_dict2[rel_name])
X = pd.DataFrame(DataDict)
feature_names.extend(X.columns)
# векторайзер по словам
all_texts = [pair.edu1.text for pair in pairs] + [pair.edu2.text for pair in pairs]
c_vect.fit(all_texts)
# edus1_vect = c_vect.transform([pair.edu1.text for pair in pairs])
# edus2_vect = c_vect.transform([pair.edu2.text for pair in pairs])
feature_names.extend([i+'1' for i in c_vect.get_feature_names() ])
feature_names.extend([i+'2' for i in c_vect.get_feature_names() ])
# векторайзер по тегам частей речи
all_pos = [pair.edu1.pos for pair in pairs] + [pair.edu2.pos for pair in pairs]
pos_vect.fit(all_pos)
pos1_vect = pos_vect.transform([pair.edu1.pos for pair in pairs])
pos2_vect = pos_vect.transform([pair.edu2.pos for pair in pairs])
feature_names.extend([i+'1' for i in pos_vect.get_feature_names() ])
feature_names.extend([i+'2' for i in pos_vect.get_feature_names() ])
# Doc2Vec - вектор ЭДЕ
d2v1 = csr_matrix(np.array([model_d.infer_vector(pair.edu1.tokens) for pair in pairs]))
d2v2 = csr_matrix(np.array([model_d.infer_vector(pair.edu1.tokens) for pair in pairs]))
feature_names.extend(['d2v1'+str(i) for i in range(100)])
feature_names.extend(['d2v2'+str(i) for i in range(100)])
# Word2Vec - векторы первого и последнего токена в ЭДЕ
w2v1_first = csr_matrix(np.array([w2v_word_vector(model_w, pair.edu1.tokens[0]) for pair in pairs]))
w2v2_first = csr_matrix(np.array([w2v_word_vector(model_w, pair.edu2.tokens[0]) for pair in pairs]))
w2v1_last = csr_matrix(np.array([w2v_word_vector(model_w, pair.edu1.tokens[-1]) for pair in pairs]))
w2v2_last = csr_matrix(np.array([w2v_word_vector(model_w, pair.edu2.tokens[-1]) for pair in pairs]))
feature_names.extend(['w2v1_first'+str(i) for i in range(100)])
feature_names.extend(['w2v2_first'+str(i) for i in range(100)])
feature_names.extend(['w2v1_last'+str(i) for i in range(100)])
feature_names.extend(['w2v2_last'+str(i) for i in range(100)])
# # СИНТАКСИС Word2Vec - векторы head ЭДЕ, POS-теги head ЭДЕ
# head_ids_edu1 = [detect_head(mp.parse_one(pair.edu1.tokens)) for pair in pairs]
# head_ids_edu2 = [detect_head(mp.parse_one(pair.edu2.tokens)) for pair in pairs]
# head_vectors_edu1 = csr_matrix(np.array([w2v_word_vector(model_w, pairs[i].edu1.tokens[head_ids_edu1[i]]) for i in range(len(pairs))]))
# head_vectors_edu2 = csr_matrix(np.array([w2v_word_vector(model_w, pairs[i].edu2.tokens[head_ids_edu2[i]]) for i in range(len(pairs))]))
# head_pos_edu1 = pos_vect.transform([[pairs[i].edu1.pos[head_ids_edu1[i]]] for i in range(len(pairs))])
# head_pos_edu2 = pos_vect.transform([[pairs[i].edu2.pos[head_ids_edu2[i]]] for i in range(len(pairs))])
# X_sparse = csr_matrix(np.array(X))
# X_concat = hstack((X_sparse, edus1_vect, edus2_vect, pos1_vect, pos2_vect, d2v1, d2v2,
# w2v1_first, w2v2_first, w2v1_last, w2v2_last))
print(len(feature_names))
return feature_names
def drt_discourse_demo(reading_command=None):
"""
Illustrate the various methods of C{DiscourseTester}
"""
dt = DiscourseTester(['every dog chases a boy', 'he runs'],
reading_command)
dt.models()
print
dt.sentences()
print
dt.readings()
print
dt.readings(show_thread_readings=True)
print
dt.readings(filter=True, show_thread_readings=True)
def spacer(num=30):
print '-' * num
if __name__ == '__main__':
discourse_demo()
tagger = RegexpTagger([('^(chases|runs)$', 'VB'), ('^(a)$', 'ex_quant'),
('^(every)$', 'univ_quant'), ('^(dog|boy)$', 'NN'),
('^(he)$', 'PRP')])
depparser = MaltParser(tagger=tagger)
drt_discourse_demo(
DrtGlueReadingCommand(remove_duplicates=False, depparser=depparser))
# S VP NP Bob <-> Bob Np VP S
# always the reversed list goes first and that's it?
sublist1 = path1[j:]
#print("sublist1",sublist1)
if j < len(path2) - 1:
j = j + 1
sublist2 = path2[j:]
#print("sublist2",sublist2)
sublist2.reverse()
#print("sublist2",sublist2)
shortestpath = sublist2 + sublist1
return shortestpath
dparser = MaltParser('../data/grammars/maltparser-1.8.1/',
'engmalt.linear-1.7.mco')
pt = dparser.parse_one('I shot an elephant in my pajamas .'.split()).tree()
# print(pt)
# print(pt)
# print(shortestPath(pt,'I','pajamas'))
# print(shortestPath(pt,'I','pajamas'))
# print(shortestPath(pt,'elephant','pajamas'))
# print(shortestPath(pt,'I','elephant'))
# parsing many sentences
tagged_sents = [
"The other day I went to the beach.".split(),
"It was a hot day so I swimmed in the water.".split()
class Glue(object):
def __init__(self, semtype_file=None, remove_duplicates=False,
depparser=None, verbose=False):
self.verbose = verbose
self.remove_duplicates = remove_duplicates
self.depparser = depparser
if semtype_file:
self.semtype_file = semtype_file
else:
self.semtype_file = 'glue.semtype'
def train_depparser(self, depgraphs=None):
if depgraphs:
self.depparser.train(depgraphs)
else:
self.depparser.train_from_file(data.find(os.path.join('grammars', 'sample_grammars', 'glue_train.conll')))
def parse_to_meaning(self, sentence):
readings = []
for agenda in self.parse_to_compiled(sentence):
readings.extend(self.get_readings(agenda))
return readings
def get_readings(self, agenda):
readings = []
agenda_length = len(agenda)
atomics = dict()
nonatomics = dict()
while agenda: # is not empty
cur = agenda.pop()
glue_simp = cur.glue.simplify()
if isinstance(glue_simp, linearlogic.ImpExpression): # if cur.glue is non-atomic
for key in atomics:
try:
if isinstance(cur.glue, linearlogic.ApplicationExpression):
bindings = cur.glue.bindings
else:
bindings = linearlogic.BindingDict()
glue_simp.antecedent.unify(key, bindings)
for atomic in atomics[key]:
if not (cur.indices & atomic.indices): # if the sets of indices are disjoint
try:
agenda.append(cur.applyto(atomic))
except linearlogic.LinearLogicApplicationException:
pass
except linearlogic.UnificationException:
pass
try:
nonatomics[glue_simp.antecedent].append(cur)
except KeyError:
nonatomics[glue_simp.antecedent] = [cur]
else: # else cur.glue is atomic
for key in nonatomics:
for nonatomic in nonatomics[key]:
try:
if isinstance(nonatomic.glue, linearlogic.ApplicationExpression):
bindings = nonatomic.glue.bindings
else:
bindings = linearlogic.BindingDict()
glue_simp.unify(key, bindings)
if not (cur.indices & nonatomic.indices): # if the sets of indices are disjoint
try:
agenda.append(nonatomic.applyto(cur))
except linearlogic.LinearLogicApplicationException:
pass
except linearlogic.UnificationException:
pass
try:
atomics[glue_simp].append(cur)
except KeyError:
atomics[glue_simp] = [cur]
for entry in atomics:
for gf in atomics[entry]:
if len(gf.indices) == agenda_length:
self._add_to_reading_list(gf, readings)
for entry in nonatomics:
for gf in nonatomics[entry]:
if len(gf.indices) == agenda_length:
self._add_to_reading_list(gf, readings)
return readings
def _add_to_reading_list(self, glueformula, reading_list):
add_reading = True
if self.remove_duplicates:
for reading in reading_list:
try:
if reading.tp_equals(glueformula.meaning, 'Prover9'):
add_reading = False
break;
except:
#if there is an exception, the syntax of the formula
#may not be understandable by the prover, so don't
#throw out the reading.
pass
if add_reading:
reading_list.append(glueformula.meaning)
def parse_to_compiled(self, sentence='a man sees Mary'):
gfls = [self.depgraph_to_glue(dg) for dg in self.dep_parse(sentence)]
return [self.gfl_to_compiled(gfl) for gfl in gfls]
def dep_parse(self, sentence='every cat leaves'):
#Lazy-initialize the depparser
if self.depparser is None:
self.depparser = MaltParser(tagger=self.get_pos_tagger())
if not self.depparser._trained:
self.train_depparser()
return [self.depparser.parse(sentence, verbose=self.verbose)]
def depgraph_to_glue(self, depgraph):
return self.get_glue_dict().to_glueformula_list(depgraph)
def get_glue_dict(self):
return GlueDict(self.semtype_file)
def gfl_to_compiled(self, gfl):
index_counter = Counter()
return_list = []
for gf in gfl:
return_list.extend(gf.compile(index_counter))
if self.verbose:
print 'Compiled Glue Premises:'
for cgf in return_list:
print cgf
return return_list
def get_pos_tagger(self):
regexp_tagger = RegexpTagger(
[(r'^-?[0-9]+(.[0-9]+)?$', 'CD'), # cardinal numbers
(r'(The|the|A|a|An|an)$', 'AT'), # articles
(r'.*able$', 'JJ'), # adjectives
(r'.*ness$', 'NN'), # nouns formed from adjectives
(r'.*ly$', 'RB'), # adverbs
(r'.*s$', 'NNS'), # plural nouns
(r'.*ing$', 'VBG'), # gerunds
(r'.*ed$', 'VBD'), # past tense verbs
(r'.*', 'NN') # nouns (default)
])
brown_train = brown.tagged_sents(categories='news')
unigram_tagger = UnigramTagger(brown_train, backoff=regexp_tagger)
bigram_tagger = BigramTagger(brown_train, backoff=unigram_tagger)
trigram_tagger = TrigramTagger(brown_train, backoff=bigram_tagger)
#Override particular words
main_tagger = RegexpTagger(
[(r'(A|a|An|an)$', 'ex_quant'),
(r'(Every|every|All|all)$', 'univ_quant')
], backoff=trigram_tagger)
return main_tagger
def get_maltparse_tagger():
maltparse_dir = os.environ['MALTPARSE_DIR']
maltparse_model = os.path.join(maltparse_dir, 'TRL_maltparser_modul_ES.rar') ##Provided by IULA asa pretrained modelbut needs to be .mco filenot rar.
return MaltParser(maltparse_dir)
]
# hack for subprocess.DEVNULL on python 2.7
try:
from subprocess import DEVNULL # py3k
except ImportError:
import os
import subprocess
subprocess.DEVNULL = open(os.devnull, 'wb')
os.environ['STANFORD_MODELS'] = 'libs/stanford-postagger-2018-10-16/models'
tagger = StanfordPOSTagger(
'english-bidirectional-distsim.tagger',
'libs/stanford-postagger-2018-10-16/stanford-postagger.jar')
parser = MaltParser(os.path.dirname(os.path.abspath(__file__)) +
'/libs/maltparser-1.9.1',
'libs/engmalt.linear-1.7.mco',
tagger=tagger.tag)
stemmer = WordNetLemmatizer()
def wsd_of(tree, node):
head, pobj = getLink(tree, node, 'head'), getLink(tree, node, 'dep:pobj')
if head['tag'] == 'CD' or head['word'] == 'many': # 3 of them
return 'f_part_whole'
elif pobj['tag'] == 'CD': # a total of 20
return 'Scale_value'
else:
return 'Entity_association'
frames = {
Features
1. unigrams
2. bigrams
3.
'''
# MaltParser for dependency triples
# how to get maltparser to work: http://stackoverflow.com/questions/13207394/step-by-step-to-getting-malt-parser-in-nltk-to-work
set_maltparser = "export MALT_PARSER=%s" % (
os.path.abspath("maltparser-1.8.1"))
set_maltmodel = "export MALT_MODEL=%s" % (
os.path.abspath("engmalt.linear-1.7.mco"))
os.system(set_maltmodel)
os.system(set_maltparser)
mp = MaltParser('maltparser-1.8.1', 'engmalt.linear-1.7.mco')
# Name entity tagger
#add the jar and model via their path:
ner_jar = os.path.abspath("stanford-ner-2016-10-31/stanford-ner-3.7.0.jar")
ner_model = os.path.abspath(
"stanford-ner-2016-10-31/classifiers/english.all.3class.distsim.crf.ser.gz"
)
ner_st = StanfordNERTagger(ner_model, ner_jar)
pos_jar = os.path.abspath(
"stanford-postagger-2016-10-31/stanford-postagger.jar")
pos_model = os.path.abspath(
"stanford-postagger-2016-10-31/models/english-bidirectional-distsim.tagger"
)
pos_st = StanfordPOSTagger(pos_model, pos_jar)
# always the reversed list goes first and that's it?
sublist1 = path1[j:]
#print("sublist1",sublist1)
if j< len(path2)-1:
j=j+1
sublist2 = path2[j:]
#print("sublist2",sublist2)
sublist2.reverse()
#print("sublist2",sublist2)
shortestpath = sublist2 + sublist1
return shortestpath
dparser = MaltParser('../data/grammars/maltparser-1.8.1/', 'engmalt.linear-1.7.mco')
pt = dparser.parse_one('I shot an elephant in my pajamas .'.split()).tree()
# print(pt)
# print(pt)
# print(shortestPath(pt,'I','pajamas'))
# print(shortestPath(pt,'I','pajamas'))
# print(shortestPath(pt,'elephant','pajamas'))
# print(shortestPath(pt,'I','elephant'))
# parsing many sentences
tagged_sents= [
from role.corpus import *
from nltk.corpus import brown
from nltk.sem.glue import *
nltk.sem.logic._counter._value = 0
from nltk.parse.malt import MaltParser
# file = read_stanza_document_file("role/corpus/kant/fpmm_1_stanza.ann")
# tagged = [[(w.text, w.xpos) for w in s.words] for s in file.sentences]
brown_train = brown.tagged_sents(categories="news")
unigram_tagger = UnigramTagger(brown_train)
# bigram_tagger = BigramTagger(brown_train, backoff=unigram_tagger)
# trigram_tagger = TrigramTagger(brown_train, backoff=bigram_tagger)
main_tagger = RegexpTagger(
[(r"(A|a|An|an|The|the)$", "ex_quant"),
(r"(Every|every|All|all|Any|any)$", "univ_quant")],
backoff=unigram_tagger,
)
depparser = MaltParser('./maltparser-1.9.2', tagger=main_tagger.tag)
glue = DrtGlue(depparser=depparser)
print(
main_tagger.tag(
"The grand jury produced no evidence that any irregularities took place"
.split()))
readings = glue.parse_to_meaning(
"The grand jury produced no evidence that any irregularities took place".
split())
def __init__(self, version = "maltparser-1.9.2", model = "engmalt.linear-1.7.mco"):
super().__init__()
root = os.getcwd()
version_path = os.path.join(root, "schemata", "parse", "maltparser", version )
model_path =os.path.join(root, "schemata", "parse", "maltparser", model )
self.base = MP(version_path, model_path)
