def test_64bit_symbolsize(self):
"""
Asserts that SymbolSizeExceptions are raised for invalid symbol sizes
on 64 bit systems
A good symbolsize for 64 bit is in increments of 8 BYTES
"""
#save the original
original = config._64BIT
try:
config._64BIT = True
# Try a bad symbolsize.
with self.assertRaises(SymbolSizeException):
c = Chunker(10, 7)
try:
# Try a good symbol size (exactly 8 BYTES)
c = Chunker(10, 8)
# Try a multiple of 8BYTES
c = Chunker(10, 24)
except Exception, e:
self.fail(e.tostring())
finally:
# Restore original
config._64BIT = original
def execute(self):
self._pool = Pool(config.pool_processors)
# We need to generate blank files before writing them
# Python doesnt allow those at execution time..?
for parser in instance_parsers + node_parsers:
write.write_header_csv(parser.file_name, parser.csv_header)
logging.info('Created blank csv')
self._pool.starmap(_parse, zip(
repeat(self._writer,),
repeat(config.run_log),
repeat('test'),
Chunker.chunkify(config.run_log, config.file_chunk_size),
repeat(instance_parsers),
))
for node in self._context.nodes.values():
self._pool.starmap(_parse, zip(
repeat(self._writer),
repeat(node.get_log_file()),
repeat(node.name),
Chunker.chunkify(node.get_log_file(), config.file_chunk_size),
repeat(node_parsers),
))
self._pool.close()
logging.info('Parsing done')
def execute(self):
self._pool = Pool(config.pool_processors)
for parser in host_parsers + node_parsers:
self._writer.write_header_csv(parser.file_name, parser.csv_header)
logging.info('Created all empty csv files')
self._pool.starmap(
_parse,
zip(
repeat(self._writer, ),
repeat(config.run_log),
repeat('simcoin'),
Chunker.chunkify(config.run_log, config.file_chunk_size),
repeat(host_parsers),
))
for node in self._context.nodes.values():
self._pool.starmap(
_parse,
zip(
repeat(self._writer),
repeat(node.get_log_file()),
repeat(node.name),
Chunker.chunkify(node.get_log_file(),
config.file_chunk_size),
repeat(node_parsers),
))
self._pool.close()
logging.info('Finished parsing of run_log and all node logs')
def __init__(self, *args, **kwargs):
self.drives = []
self.drive_index = 0
self.got_ack = False
self.chunker = Chunker(server=True)
self.ws = None
super().__init__(*args, **kwargs)
def loadMovieLensParallel(self):
self.data = {}
#init objects
pool = mp.Pool(self.cores)
jobs = []
#create jobs
fname = self.path + "u.data"
for chunkStart, chunkSize in Chunker.chunkify(fname):
jobs.append(
pool.apply_async(self.process_data,
(fname, chunkStart, chunkSize)))
#wait for all jobs to finish
for job in jobs:
job.get()
#clean up
pool.close()
#init objects
pool = mp.Pool(self.cores)
jobs = []
fname = self.path + "u.item"
for chunkStart, chunkSize in Chunker.chunkify(fname):
jobs.append(
pool.apply_async(self.process_item,
(fname, chunkStart, chunkSize)))
#wait for all jobs to finish
for job in jobs:
job.get()
#clean up
pool.close()
#init objects
pool = mp.Pool(self.cores)
jobs = []
fname = self.path + "u.user"
for chunkStart, chunkSize in Chunker.chunkify(fname):
jobs.append(
pool.apply_async(self.process_users,
(fname, chunkStart, chunkSize)))
#wait for all jobs to finish
for job in jobs:
job.get()
#clean up
pool.close()
def test_block_ids(self):
"""
Tests the generation of block ids
The first should be 0
The second should be 0 + 1
"""
c = Chunker(DEFAULT_K, DEFAULT_SYMBOLSIZE)
expected_block_id = 0
# Check that first blockid = 0
self.assertEqual(c.get_block_id(), expected_block_id)
# Check that the next block id = 1
expected_block_id = 1
self.assertEqual(c.get_block_id(), expected_block_id)
def _parse(writer, log_file, name, chunk, parsers):
parsed_objects = {}
for line in Chunker.parse(Chunker.read(log_file, chunk)):
for parser in parsers:
try:
parsed_object = parser.from_log_line(line, name)
parsed_objects.setdefault(parsed_object.file_name, []).append(parsed_object)
break
except ParseException:
pass
for key in parsed_objects:
writer.append_csv(key, parsed_objects[key])
logging.info('Parsing the type of tick {}'
.format(len(parsed_objects)))
def test_block_ids(self):
"""
Tests the generation of block ids
The first should be 0
The second should be 0 + 1
"""
c = Chunker(DEFAULT_K, DEFAULT_SYMBOLSIZE)
expected_block_id = 0
# Check that first blockid = 0
self.assertEqual(c.get_block_id(), expected_block_id)
# Check that the next block id = 1
expected_block_id = 1
self.assertEqual(c.get_block_id(), expected_block_id)
def scores(self, viterbi_sequences, id_to_tag_dict, validation_labels,
batch):
# Get performance of model: precision, recall, f1-score
found_viterbi = 0
correct_viterbi = 0
found_y = 0 # i.e. correct_y
for seq in range(len(viterbi_sequences)):
viterbi_tag_idxs = viterbi_sequences[seq]
viterbi_tags = [
id_to_tag_dict[i] for i in np.asarray(viterbi_tag_idxs)
]
chunker = Chunker()
viterbi_entities = chunker.extract_named_entities(viterbi_tags)
y_tag_idxs = validation_labels[batch][seq][:len(viterbi_tag_idxs)]
y_tags = [id_to_tag_dict[j] for j in y_tag_idxs]
y_entities = chunker.extract_named_entities(y_tags)
found_viterbi += len(viterbi_entities)
found_y += len(y_entities)
for ner in viterbi_entities:
if ner in y_entities:
correct_viterbi += 1
if found_viterbi > 0:
print("Found (correct) " + str(correct_viterbi))
print("Found (guessed) " + str(found_viterbi))
self.precision = 100.00 * (correct_viterbi / found_viterbi)
print("Precision: " + str(self.precision))
else:
print("Precision 0. No named entities guessed")
if found_y > 0:
print("Found (correct) " + str(correct_viterbi))
print("Actual correct " + str(found_y))
self.recall = 100.00 * (correct_viterbi / found_y)
print("Recall: " + str(self.recall))
else:
print("Recall 0. No named entities in gold standard.")
if (self.precision > 0) and (self.recall > 0):
self.f1_score = 2.0 * self.precision * self.recall / (
self.precision + self.recall)
print("F1 score: " + str(self.f1_score))
else:
print("F1 score 0. Precision and recall are 0.")
def test_small_chunk(self):
new_lijst = [i for i in range(20)]
new_lijst_chunker = Chunker(new_lijst)
new_lijst50 = list(new_lijst_chunker(50))
self.assertEqual(len(new_lijst50), 1)
self.assertEqual(new_lijst50[0][19], 19)
def test_even_chunk(self):
lijst = [i for i in range(300)]
lijst_chunker = Chunker(lijst)
lijst50 = list(lijst_chunker(50))
self.assertEqual(len(lijst50[0]), 50)
self.assertEqual(lijst50[1][0], 50)
self.assertEqual(len(lijst50), 6)
self.assertEqual(lijst50[5][49], 299)
def test_odd_chunk(self):
lijst = [i for i in range(253)]
lijst_chunker = Chunker(lijst)
lijst47 = list(lijst_chunker(47))
self.assertEqual(len(lijst47[0]), 47)
self.assertEqual(lijst47[1][0], 47)
self.assertEqual(len(lijst47), 6)
self.assertEqual(lijst47[5][17], 252)
def test_32bit_init(self):
"""
Tests the initialization of the chunker on 32 bit systems
"""
original = config._64BIT
config._64BIT = False
try:
c = Chunker(DEFAULT_K, DEFAULT_SYMBOLSIZE)
self.assertEqual(c.dtype, "uint32")
self.assertEqual(c.bytes_per_int, 4)
finally:
config._64BIT = original
def readMovies(self, path='/ml-25m'):
self.data = {}
#init objects
pool = mp.Pool(8)
jobs = []
#create jobs
fname = self.path + path + "/ratings.csv"
for chunkStart, chunkSize in Chunker.chunkify(fname):
jobs.append(
pool.apply_async(self.process_data,
(fname, chunkStart, chunkSize)))
for job in jobs:
job.get()
#clean up
pool.close()
def test_chunker_init(self):
"""
Tests the basic initialization of the chunker class
"""
expected_blocksize = DEFAULT_SYMBOLSIZE * DEFAULT_K
expected_block_id = 0
c = Chunker(DEFAULT_K, DEFAULT_SYMBOLSIZE)
# Check k
self.assertEqual(c.k, DEFAULT_K)
# Check Symbolsize
self.assertEqual(c.symbolsize, DEFAULT_SYMBOLSIZE)
# Check blocksize
self.assertEqual(c.blocksize, expected_blocksize)
# Check expected block id
self.assertEqual(c.block_id, expected_block_id)
def simulator_evaluate_all(file, evaluation_list=None):
if evaluation_list is None:
evaluation_list = []
chunker = Chunker(file)
for each_chunk in chunker:
simulator_jevaluate(each_chunk, evaluation_list)
from chunker import Chunker ch = Chunker() kalimat = "Richard Winger , rekan di Boston Consulting Group , menambahkan : Belakangan ini , sangat populer jika menghias diri anda dengan bendera ." print(ch.tree_to_str(ch.chunk_me1(kalimat))) print(ch.tree_to_str(ch.chunk_me2(kalimat))) print(ch.tree_to_str(ch.chunk_me3(kalimat)))
def parse():
"parse POSTed Korean sentence"
# grab sentence to parse
sentence = request.form.get('sentence')
if not sentence:
return jsonify(result="FAIL", msg="Missing sentence")
# build a string for the KHaiii phoneme analyzer
if sentence.strip()[-1] not in ['.', '?', '!']:
sentence += '.'
# run Khaiii
words = []
for w in khaiiiAPI.analyze(sentence):
for m in w.morphs:
words.append('{0}:{1}'.format(m.lex.strip(), m.tag))
posString = ';'.join(words)
# map POS through synthetic tag mapper
mappedPosList = TagMap.mapTags(posString)
# perform chunk parsing
chunkTree = Chunker.parse(mappedPosList)
# apply any synthetic-tag-related node renamings
TagMap.mapNodeNames(chunkTree)
# build descriptive phrase list
phrases = Chunker.phraseList(chunkTree)
# recursively turn the chunk tree into a Python nested dict for the JSON response
def asDict(chunk):
while isinstance(chunk, nltk.Tree) and len(chunk) == 1:
# flatten degenerate tree nodes
chunk = chunk[0]
if isinstance(chunk, nltk.Tree):
return dict(
type='tree',
tag='Sentence' if chunk.label() == 'S' else chunk.label(),
children=[asDict(t) for t in chunk])
else:
return dict(type='pos', word=chunk[0].strip(), tag=chunk[1])
#
parseTree = asDict(chunkTree)
debugging = dict(posList=pformat(words),
mappedPosList=pformat(mappedPosList),
phrases=pformat(phrases),
parseTree=pformat(parseTree))
return jsonify(result="OK",
posList=words,
mappedPosList=mappedPosList,
phrases=phrases,
parseTree=parseTree,
debugging=debugging)
if False:
# synthetic tag patterns -
# patterns of these word:POC strings are preprocessed to define new
# synthetic word:POC tags used in the chunking grammar below
# at present, these are applied in the order longest-to-shortest pattern, we should probably make this a listfor explicit ordering
tagMappings = {
r'들:(TM|XSN)': r'들:PLU', # pluralizer
r'기:(ETN|NNG)': r'기:GNOM', # nominalizer
r'(ㄴ|는|ㄹ):ETM;것:NNB': r'\1 것:GNOM', # nominalizer
r'(은|는):JX':
r'\1:JKS', # turn topic-marking partcile into subject-marker (I think this is right??)
r'(ㄹ|을|를):ETM;거:NNB;이:VCP':
r'\1 거 이:FUT', # ㄹ/를 거 이다 future-tense conjugator (hack!)
r'전:NNG;에:JKB': r'전에:BEF', # before
r'때문:NNB;에:JKB': r'때문에:BEC', # because
r'및:MAG': r'및:ALS', # also connector (why is it an adverb??)
r'또는:MAG':
r'또는:ALT', # alternative connector (why is it an adverb??)
r'에:JKB;(대하|관하):VV;([^:]+):EC':
r'에 \1\2:PRP', # preposition "about
}
# prepositional phrase suffix-patterns (generate a <PRPP> pos-tag + metadata to label the parsing
# tag-pattern replacement subtree name-mapping reference links
# (r'전:NNG;에:JKB', r'전에:PRP', "PrepositionalPhrase:Before", ("ttmik:lessons/level-3-lesson-10", "htsk:unit1/unit-1-lessons-17-25-2/lesson-24/#242")) # before
# generate a version of the parser's original word:POC string including synthetic tag mappings above
tagString = ';' + posString + ';'
for old, new in sorted(tagMappings.items(),
key=lambda x: len(x[0]),
reverse=True):
tagString = re.sub(';' + old + ';', ';' + new + ';', tagString)
mappedWords = [
tuple(pos.split(':')) for pos in tagString.strip(';').split(';')
]
# Korean phrase NLTK chunking grammar
grammar = r"""
HadaVerb: {<NN.*><XSV>}
AuxiliaryVerb: {<EC><VX|VV>}
Adverb: {<MAG>}
NominalizedVerb: {<VV|HadaVerb><EP|FUT>*<GNOM>}
Adjective: {<Adverb>*<VA><ETM>}
DescriptiveVerb: {<VA>}
Verb: {<VV|VCN|HadaVerb|DescriptiveVerb>}
VerbSuffix: {<EP|FUT>*<EF|EC>}
Location: {<JKB>}
Title: {<XSN>}
Preposition: {<PRP>}
Noun: {<NN.*|NR|SL>}
Pronoun: {<NP>}
Substantive: {<Noun><Noun>*}
{<Pronoun>}
{<NominalizedVerb>}
NounPhrase: {<XPN>*<MAG>*<Adjective>*<Substantive><Title>*<Location>*<PLU>*<JX>*<Preposition>*}
Possessive: {<NounPhrase><JKG><NounPhrase>}
Component: {<NounPhrase|Possessive><JC|ALS|ALT>}
Connection: {<Component><Component>*<NounPhrase|Possessive>}
Constituent: {<NounPhrase|Possessive|Connection>}
Complement: {<Constituent><JKC>}
Object: {<Constituent><JKO>}
Subject: {<Constituent><JKS>}
Before: {<Constituent|Object|Subject>*<Constituent><BEF>}
Because: {<Constituent|Object|Subject>*<Constituent><BEC>}
Copula: {<Constituent><Adverb>*<VCP><AuxiliaryVerb>*<VerbSuffix>}
Predicate: {<Adverb>*<Verb><AuxiliaryVerb>*<VerbSuffix>}
"""
# Component: { < NounPhrase > < JC | ALS > }
# Connection: { < Component > < Component > * < NounPhrase > }
# Possessive: { < NounPhrase | Connection > < JKG > < NounPhrase | Connection > }
# Constituent: {<Subject|Object|Complement>}
# Clause: {<Constituent>*<Predicate>}
# Sentence: {<Clause><Clause>*}
# gen chunk tree from the word-POS list under the above chunking grammar
parser = nltk.RegexpParser(grammar, trace=1)
print(parser._stages)
chunkTree = parser.parse(mappedWords)
# heuristic subtree simplifications
# toss sentence end node
if not isinstance(chunkTree[-1],
nltk.Tree) and chunkTree[-1][1] == 'SF':
chunkTree.remove(chunkTree[-1])
# flatten connection trees
def flattenConnections(t):
for st in t:
if isinstance(st, nltk.Tree):
if st.label() == 'Connection':
# if Connection node, pull up component tuples into one long connection sequence
for i, c in enumerate(list(st)[:-1]):
st[2 * i] = c[0]
st.insert(2 * i + 1, c[1])
else:
flattenConnections(st)
flattenConnections(chunkTree)
# generate phrase-descriptors from top-level subtrees
hiddenTags = {
'Substantive',
'Constituent',
'NounPhrase',
'Connection',
}
def flattenPhrase(t, phrase):
for st in t:
if isinstance(st, nltk.Tree):
phrase = flattenPhrase(st, phrase)
if st.label() not in hiddenTags:
phrase.append({"type": 'label', "word": st.label()})
else:
phrase.append({
"type": 'word',
"word": st[0].strip(),
"tag": st[1]
}) # st[1][0] if st[1][0] in ('N', 'V') else st[0].strip()
return phrase
#
phrases = []
for t in chunkTree:
if isinstance(t, nltk.Tree):
phrase = flattenPhrase(t, [])
if t.label() not in hiddenTags:
phrase.append({"type": 'label', "word": t.label()})
phrases.append(phrase)
else:
phrases.append(('word', t[0].strip()))
for p in phrases:
print(p)
# recursively turn the chunk tree into a Python nested dict for the JSON response
def asDict(chunk):
while isinstance(chunk, nltk.Tree) and len(chunk) == 1:
# flatten degenerate tree nodes
chunk = chunk[0]
if isinstance(chunk, nltk.Tree):
return dict(
type='tree',
tag='Sentence' if chunk.label() == 'S' else chunk.label(),
children=[asDict(t) for t in chunk])
else:
return dict(type='pos', word=chunk[0].strip(), tag=chunk[1])
#
parseTree = asDict(chunkTree)
debugging = dict(posList=pformat(words),
mappedPosList=pformat(mappedWords),
phrases=pformat(phrases),
parseTree=pformat(parseTree))
return jsonify(result="OK",
posList=words,
mappedPosList=mappedWords,
phrases=phrases,
parseTree=parseTree,
debugging=debugging)
def test_not_list_passed(self):
with self.assertRaises(TypeError):
dict = {'test': 15, 'test2': 16}
Chunker(dict)
def test_chunker(reference_chunks):
with open('bootstrap.utf.txt', encoding='utf-8') as bootstrap_file:
chunker = Chunker(bootstrap_file)
for index, each_chunk in enumerate(chunker):
reference_chunk = reference_chunks[index]
assert each_chunk == reference_chunk
def put(user_id, fileName):
# read data from input file
with open(fileName, 'rb') as fin:
bytes = fin.read(BYTE_SIZE)
fileSize = len(bytes)
logging.debug("Bytes read with length {0}.".format(fileSize))
# begin chunking
chunkObj = Chunker()
cuts = chunkObj.chunking(bytes)
logging.debug("Num of Cuts: {0}".format(len(cuts)))
# for index, chunk in enumerate(chunkObj.divide_chunk(bytes, cuts)):
# logging.debug("Chunk {0}: {1}".format(index, chunk))
logging.info("Chunking completed.\n")
# create meta data
fid = fileName + str(user_id)
cryptObj = Crypto(fid, 'client')
iv = cryptObj.gen_iv(bytes)
metaObj = Meta(user_id, fileName, fileSize, iv)
logging.debug("FileName: {0}".format(metaObj.fileName))
logging.debug("IV: {0}\n".format(iv))
# gen keys
try:
keys = []
with con("localhost", 18862) as keyserver:
if keyserver.root.isExist(fid):
logging.error("File Already Exist.")
exit(1)
for i, chunk in enumerate(chunkObj.divide_chunk(bytes, cuts)):
key = keyserver.root.gen_key(fid, chunk)
if not key:
logging.error("Key is empty.")
exit(1)
keys.append(key)
logging.debug("Key {0}: {1}".format(i, key))
except:
logging.error("Cannot generate key.")
exit(1)
logging.info("Key generation completed.\n")
# encrypt chunks
ciphers = []
count = 0
for chunk, key in zip(chunkObj.divide_chunk(bytes, cuts), keys):
cipher = cryptObj.encode(chunk, key, iv)
ciphers.append(cipher)
# logging.debug("Cipher {0}: {1}".format(count, cipher))
count += 1
del bytes
del keys
logging.info("Encryption completed.\n")
# send ciphers to server
try:
with con("localhost", 18861) as master:
if master.root.put(metaObj):
for cipher in ciphers:
master.root.put(metaObj, cipher)
logging.info("Chunk with size {0} uploaded.".format(
len(cipher)))
else:
logging.error("File Already Exist.")
exit(1)
except:
logging.error("Cannot upload file.")
exit(1)
import os
from flask import Flask, request, json, render_template, Response
from flask_cors import CORS
from chunker import Chunker
ch = Chunker()
app = Flask(__name__)
CORS(app)
@app.route('/')
def hello_world():
return 'Hello World'
@app.route('/chunk', methods = ['POST'])
def chunk():
data_all = request.get_json()
kalimat = data_all['kalimat']
return str(ch.tree_to_str(ch.chunk_me2(kalimat)))
# _ists = iSTSEngine()
# return _ists.singleTest()
if __name__ == '__main__':
app.run(host="0.0.0.0", port=5000)
'-n',
'--n-workers',
type=int,
default=DEFAULT_WORKERS,
help=f"number of workers to use (default depends on your system)")
parser.add_argument(
'--spacy-langs',
nargs='+',
default=['de', 'en'],
help='spaCy model language names (in order) to use for lemmatization')
parser.add_argument(
'--outdir',
default=None,
help='directory to put outputs (if different original file locations)')
parser.add_argument(
'--logdir',
default=None,
help='directory to put logs (default will be current working dir)')
args = parser.parse_args()
args = vars(args)
fps = args.pop('fps')
workers = args.pop('n_workers')
b_size = args.pop('batch_size')
max_tasks = args.pop('max_tasks_per_child')
outdir = args.pop('outdir')
representer = ParallelSpacy(**args)
representer.chunker = Chunker(fps, b_size)
representer.process(fps, workers, max_tasks, outdir=outdir)
def parseInput(input,
parser="RD",
showAllLevels=False,
getWordDefinitions=True):
"parse input string into list of parsed contained sentence structures"
# parser can be RD for recusrsive descent (currently the most-developed) or "NLTK" for the original NLTK chunking-grammar parser
# clean & build a string for the KHaiii phoneme analyzer
input = input.strip()
if input[-1] not in ['.', '?', '!']:
input += '.'
input = re.sub(
r'\s+([\.\?\;\,\:])', r'\1',
input) # elide spaces preceding clause endings, throws Khaiii off
# input = input.replace(',', ' , ').replace(';', ' ; ').replace(':', ' : ') - adding a space before punctuation seems to mess tagging in Khaiii
log("* parse {0}".format(input))
# run Khaiii, grab the parts-of-speech list it generates (morphemes + POS tags) and extract original word-to-morpheme groupings
sentences = [] # handle possible multiple sentences
posList = []
morphemeGroups = []
for w in khaiiiAPI.analyze(input):
morphemeGroups.append(
[w.lex, [m.lex for m in w.morphs if m.tag != 'SF']])
for m in w.morphs:
posList.append('{0}:{1}'.format(m.lex.strip(), m.tag))
if m.tag == 'SF':
# sentence end, store extractions & reset for possible next sentence
sentences.append(
dict(posList=posList,
morphemeGroups=morphemeGroups,
posString=';'.join(posList)))
posList = []
morphemeGroups = []
for s in sentences:
# map POS through synthetic tag mapper & extract word groupings
mappedPosList, morphemeGroups = TagMap.mapTags(
s['posString'], s['morphemeGroups']) #, disableMapping=True)
log(" {0}".format(s['posString']))
log(" mapped to {0}".format(mappedPosList))
if parser == "NLTK": # NLTK chunking parser
# perform chunk parsing
chunkTree = Chunker.parse(mappedPosList, trace=2)
chunkTree.pprint()
# apply any synthetic-tag-related node renamings
TagMap.mapNodeNames(chunkTree)
# extract popup wiki definitions & references links & notes for implicated nodes
references = TagMap.getReferences(chunkTree)
# build descriptive phrase list
phrases = Chunker.phraseList(chunkTree)
#
parseTreeDict = buildParseTree(chunkTree,
showAllLevels=showAllLevels)
else: # recursive-descent parser
from rd_grammar import KoreanParser
parser = KoreanParser([":".join(p) for p in mappedPosList])
parseTree = parser.parse(verbose=1)
if parseTree:
# apply any synthetic-tag-related node renamings
parseTree.mapNodeNames()
# extract popup wiki definitions & references links & notes for implicated nodes
references = parseTree.getReferences()
# build descriptive phrase list
phrases = parseTree.phraseList()
# get noun & verb translations from Naver
wordDefs = getWordDefs(
mappedPosList) if getWordDefinitions else {}
# build JSONable parse-tree dict
parseTreeDict = parseTree.buildParseTree(
wordDefs=wordDefs, showAllLevels=showAllLevels)
log(" {0}".format(parseTree))
else:
# parsing failed, return unrecognized token
parseTree = references = parseTreeDict = phrases = None
s.update(
dict(error="Sorry, failed to parse sentence",
lastToken=parser.lastTriedToken()))
log(" ** failed. Unexpected token {0}".format(
parser.lastTriedToken()))
# format debugging daat
debugging = dict(posList=pformat(s['posList']),
mappedPosList=pformat(mappedPosList),
phrases=pformat(phrases),
morphemeGroups=pformat(morphemeGroups),
parseTree=pformat(parseTreeDict),
references=references)
# add parsing results to response structure
s.update(
dict(mappedPosList=mappedPosList,
morphemeGroups=morphemeGroups,
parseTree=parseTreeDict,
references=references,
phrases=phrases,
debugging=debugging))
#
return sentences
class WSView(RedisView):
def __init__(self, *args, **kwargs):
self.drives = []
self.drive_index = 0
self.got_ack = False
self.chunker = Chunker(server=True)
self.ws = None
super().__init__(*args, **kwargs)
@property
def latest_drive(self):
if not self.drives:
return None
drive_id = self.drives[self.drive_index]
self.drive_index += 1
if self.drive_index >= len(self.drives):
self.drive_index = 0
return drive_id
async def send(self, data):
await self.ws.send_str(json.dumps(data))
async def get(self):
ws = aiohttp.web.WebSocketResponse(heartbeat=2)
print('Opening a socket.')
await ws.prepare(self.request)
print('Websocket connection ready')
self.got_ack = True
self.ws = ws
await self.create_redis()
async for message in self.ws:
if message.type != aiohttp.WSMsgType.TEXT:
continue
print(
f"{message.data}; chunk: {self.chunker.current_chunk}; drive: {self.drive_index}; ack: {self.got_ack}; {len(self.drives)} drives"
)
await self.handle_message(message)
print('Websocket connection closed')
await self.cleanup_redis()
return self.ws
async def handle_message(self, message):
data = json.loads(message.data)
if data["cmd"] == 'close':
await self.ws.close()
elif data["cmd"] == "ack":
self.got_ack = True
elif data["cmd"] == "setchunk":
self.chunker.set_chunk(data["i"])
elif data["cmd"] == "ping":
if not self.drives:
await self.send({"cmd": "getinfo"})
return
if not self.got_ack:
return
self.got_ack = False
await self.send({
"cmd": "getchunk",
"chunk_id": self.chunker.current_chunk,
"address": self.latest_drive
})
self.chunker.next_chunk()
elif data["cmd"] == "drives":
self.drives = data["drives"]
