def setup():
global pages
global urlalias
global revurlalias
global knn
pages = dict()
urlalias = dict()
revurlalias = dict()
knn = KNN()
db = MySQLdb.connect(host="192.168.200.26",
user="******",
passwd="xxxsecretxxx",
db="pla")
cur = db.cursor()
cur.execute("select source, alias from url_alias")
for row in cur.fetchall():
urlalias[row[1]] = row[0]
revurlalias[row[0]] = row[1]
cur.execute("select tid, name, description, vid from taxonomy_term_data;")
for row in cur.fetchall():
url = 'taxonomy/term/' + str(row[0])
pages[url] = row[1]
if url in revurlalias:
pages[revurlalias[url]] = row[1]
url = revurlalias[url]
if row[3] == 3:
soup = bs4.BeautifulSoup(row[2])
the_text = re.sub(r'[\n\r]+', r' ', soup.get_text(' ')).lower()
knn.train(Document(the_text, stemmer=PORTER), url)
knn.train(Document(row[1].lower()), url)
cur.execute(
"select a.tid, c.body_value, d.title from taxonomy_term_data as a inner join field_data_field_practice_areas as b on (a.tid=b.field_practice_areas_tid and b.entity_type='node' and b.bundle != 'professionals' and b.deleted=0) inner join field_data_body as c on (b.entity_id=c.entity_id and b.entity_type=c.entity_type) inner join node as d on (c.entity_id=d.nid);"
)
for row in cur.fetchall():
url = 'taxonomy/term/' + str(row[0])
if url in revurlalias:
url = revurlalias[url]
soup = bs4.BeautifulSoup(row[1])
the_text = re.sub(r'[\n\r]+', r' ', soup.get_text(' ')).lower()
knn.train(Document(the_text, stemmer=PORTER), url)
knn.train(Document(row[2].lower()), url)
cur.execute("select nid, title from node where status=1;")
for row in cur.fetchall():
url = 'node/' + str(row[0])
pages[url] = row[1]
if url in revurlalias:
pages[revurlalias[url]] = row[1]
db.close()
pgcur = conn.cursor()
pgcur.execute(
"select query, target from website_queries where target is not null group by query, target"
)
for row in pgcur.fetchall():
words = re.split(r'[\n\r,;]+ *', row[1])
for word in words:
print("training on " + row[0].lower() + " for " + word)
knn.train(Document(row[0].lower()), word)
conn.commit()
pgcur.close()
def train(cls, train_file, model_file):
sents_dic = (json.loads(jsonl)
for jsonl in SoftSkills.load(train_file))
model = KNN()
for sent in sents_dic:
text = sent['text']
v = count([word for word, pos in tag(text)]) # {'sweet': 1}
if v:
model.train(v, type=sent['soft skill'])
model.save(model_file)
return model
s = Sentence(parse(s)) # parse tree with part-of-speech tags
s = search('JJ', s) # adjectives in the tweet
s = [match[0].string for match in s] # adjectives as a list of strings
s = " ".join(s) # adjectives as string
if len(s) > 0:
m.append(Document(s, type=p, stemmer=None))
# Train k-Nearest Neighbor on the model.
# Note that this is a only simple example: to build a robust classifier
# you would need a lot more training data (e.g., tens of thousands of tweets).
# The more training data, the more statistically reliable the classifier becomes.
# The only way to really know if you're classifier is working correctly
# is to test it with testing data, see the documentation for Classifier.test().
classifier = KNN(baseline=None) # By default, baseline=MAJORITY
for document in m: # (classify unknown documents with the most frequent type).
classifier.train(document)
# These are the adjectives the classifier has learned:
print sorted(classifier.features)
print
# We can now ask it to classify documents containing these words.
# Note that you may get different results than the ones below,
# since you will be mining other (more recent) tweets.
# Again, a robust classifier needs lots and lots of training data.
# If None is returned, the word was not recognized,
# and the classifier returned the default value (see above).
print classifier.classify('sweet potato burger') # yields 'WIN'
print classifier.classify('stupid autocorrect') # yields 'FAIL'
# "What can I do with it?"
parse(s)
) #parse anlayzes & gives strings that are annotated with specified tags
s = search('JJ',
s) #searches for adjectives in tweets (JJ = adjectiive)
s = [match[0].string for match in s]
s = ' '.join(s)
if len(s) > 0:
corpus.append(Document(s, type=p))
corpus.append(Document(s, type=m))
classifier = KNN() #k-nearest neighbor classifier = K-NN
objects = []
for document in corpus: #documents are an unordered bag of given sentences.
classifier.train(
document) #adjective vectors in corpus trains the classifier
objects.append(classifier.classify('awesome')) #predicts awesome as win
objects.append(classifier.classify('cool')) #predicts cool as win
objects.append(classifier.classify('damn')) #predicts damn as fail
objects.append(classifier.classify('sucks')) #predicts sucks as fail
print objects
wincounter = 0
failcounter = 0
for thing in objects:
if thing == 'WIN':
wincounter += 1
elif thing == 'FAIL':
failcounter += 1
else:
pass
s = search('JJ', s) # adjectives in the tweet
s = [match[0].string for match in s] # adjectives as a list of strings
s = " ".join(s) # adjectives as string
if len(s) > 0:
m.append(Document(s, type=p, stemmer=None))
# Train k-Nearest Neighbor on the model.
# Note that this is a only simple example: to build a robust classifier
# you would need a lot more training data (e.g., tens of thousands of tweets).
# The more training data, the more statistically reliable the classifier becomes.
# The only way to really know if you're classifier is working correctly
# is to test it with testing data, see the documentation for Classifier.test().
classifier = KNN(baseline=None) # By default, baseline=MAJORITY
# (classify unknown documents with the most frequent type).
for document in m:
classifier.train(document)
# These are the adjectives the classifier has learned:
print(sorted(classifier.features))
print()
# We can now ask it to classify documents containing these words.
# Note that you may get different results than the ones below,
# since you will be mining other (more recent) tweets.
# Again, a robust classifier needs lots and lots of training data.
# If None is returned, the word was not recognized,
# and the classifier returned the default value (see above).
print(classifier.classify('sweet potato burger')) # yields 'WIN'
print(classifier.classify('stupid autocorrect')) # yields 'FAIL'
# "What can I do with it?"
