def testComplex(self):
# Regression check. If anything wildly varies, this test will break. A
# white-box tests of this is available:
# tests.test_translationese.Utilities.test_pmi.
sentence = "Just because you're a Bad Guy doesn't mean you're a " \
"bad guy."
analysis = Analysis(sentence)
expected_pmi = {
('guy', '.'): 2.1439800628174073,
("n't", 'mean'): 2.8371272433773522,
('does', "n't"): 2.8371272433773522,
('guy', 'does'): 2.1439800628174073,
('a', 'bad'): 2.1439800628174073,
('mean', 'you'): 2.1439800628174073,
('bad', 'guy'): 2.1439800628174073,
('just', 'because'): 2.8371272433773522,
("'re", 'a'): 2.1439800628174073,
('because', 'you'): 2.1439800628174073,
('you', "'re"): 2.1439800628174073
}
self.assertDictEqual(expected_pmi, analysis.pmi())
average_expected_pmi = sum(expected_pmi.values()) / len(expected_pmi)
self.assertAlmostEqual(2.33302, average_expected_pmi, 5)
result = average_pmi.quantify(analysis)
self.assertAlmostEqual(average_expected_pmi, result["average_pmi"], 5)
def testComplex(self):
# Regression check. If anything wildly varies, this test will break. A
# white-box tests of this is available:
# tests.test_translationese.Utilities.test_pmi.
sentence = "Just because you're a Bad Guy doesn't mean you're a " \
"bad guy."
analysis = Analysis(sentence)
expected_pmi = {
('guy', '.'): 2.1439800628174073,
("n't", 'mean'): 2.8371272433773522,
('does', "n't"): 2.8371272433773522,
('guy', 'does'): 2.1439800628174073,
('a', 'bad'): 2.1439800628174073,
('mean', 'you'): 2.1439800628174073,
('bad', 'guy'): 2.1439800628174073,
('just', 'because'): 2.8371272433773522,
("'re", 'a'): 2.1439800628174073,
('because', 'you'): 2.1439800628174073,
('you', "'re"): 2.1439800628174073
}
self.assertDictEqual(expected_pmi, analysis.pmi())
average_expected_pmi = sum(expected_pmi.values()) / len(expected_pmi)
self.assertAlmostEqual(2.33302, average_expected_pmi, 5)
result = average_pmi.quantify(analysis)
self.assertAlmostEqual(average_expected_pmi, result["average_pmi"], 5)
def testMeanMultipleNaming(self):
a = Analysis("John Joseph Doe easily defeated Bob Robertson.")
result = mean_multiple_naming.quantify(a)
self.assertAlmostEqual(2.5, result["mean_multiple_naming"])
a = Analysis("Dr James Brown, specialist in physics, visited in " \
"Haifa University.")
result = mean_multiple_naming.quantify(a)
self.assertAlmostEqual(2.5, result["mean_multiple_naming"])
def testContractions(self):
a = Analysis("I'm certain he said I am later than I am, "
"let's go.")
result = contractions.quantify(a)
self.assertAlmostEqual(0.5, result["i'm"])
self.assertAlmostEqual(1.0, result["let's"])
self.assertEqual(0.0, result["didn't"])
def testPositionalTokenFrequency(self):
text = """
Humpty dumpty sat on a wall.
Humpty dumpty had a great fall.
Strange occurrence, quite frankly.
What an egg.
"""
analysis = Analysis(text)
expected = {
"first humpty": 2,
"second dumpty": 2,
"antepenultimate on": 1,
"penultimate a": 1,
"last wall": 1,
"antepenultimate a": 1,
"penultimate great": 1,
"last fall": 1,
"first strange": 1,
"second occurrence": 1,
"antepenultimate ,": 1,
"penultimate quite": 1,
"last frankly": 1,
}
result = quantify(analysis)
self.assertSparseDictEqual(expected, result)
def testVariant0(self):
a = Analysis(self.sentence)
expected = {
'the': 2 / 11.0,
'and': 1 / 11.0,
}
result = most_frequent_words.quantify_variant(a, 0)
self.assertSparseDictEqual(expected, result)
def testMeanWordRank(self):
a = Analysis("Have you not heard? The velociraptor is the word.")
expected_0 = sum([18, 30, 20, 372, 1, 6000, 8, 1, 250]) / 9.0
expected_1 = sum([18, 30, 20, 372, 1, 8, 1, 250]) / 8.0
result_0 = mean_word_rank.quantify_variant(a, 0)["mean_word_rank"]
result_1 = mean_word_rank.quantify_variant(a, 1)["mean_word_rank"]
self.assertAlmostEqual(result_0, expected_0)
self.assertAlmostEqual(result_1, expected_1)
def testContextualFunctionWords(self):
analysis = Analysis("He better be back, lest a thousand " \
"similarly angry birds show up.")
expected = {
'he better be': 1 / 14.0,
'VBP a thousand': 1 / 14.0,
'better be back': 1 / 14.0,
'a thousand similarly': 1 / 14.0,
'thousand similarly JJ': 1 / 14.0,
}
result = contextual_function_words.quantify(analysis)
self.assertSparseDictEqual(expected, result)
def testUnigrams(self):
analysis = Analysis("Hello, a world!")
result = quantify_variant(analysis, 0)
expected = {
"a": 1 / 15.0,
"h": 1 / 15.0,
"e": 1 / 15.0,
"l": 3 / 15.0,
"o": 2 / 15.0,
"w": 1 / 15.0,
"r": 1 / 15.0,
"d": 1 / 15.0,
}
self.assertSparseDictEqual(expected, result)
def testRepetitions(self):
text = """
This is a very, very impressive thing. It is more impressive than
anything I have ever seen. Very good. You have done a fine job.
"""
# Repeated:
# very * 3
# impressive * 2
# is * 2, but doesn't count.
# have * 2, but doesn't count.
# Total: 5
expected_repetitions = 5
num_tokens = 30
expected_result = 3 * float(expected_repetitions) / num_tokens
a = Analysis(text)
result = repetitions.quantify(a)
self.assertAlmostEqual(expected_result, result["repetitions"])
def testBigrams(self):
analysis = Analysis("Hello, a world!")
result = quantify_variant(analysis, 1)
expected = {
"<h": 1 / 15.0,
"he": 1 / 15.0,
"el": 1 / 15.0,
"ll": 1 / 15.0,
"lo": 1 / 15.0,
"o>": 1 / 15.0,
"<a": 1 / 15.0,
"a>": 1 / 15.0,
"<w": 1 / 15.0,
"wo": 1 / 15.0,
"or": 1 / 15.0,
"rl": 1 / 15.0,
"ld": 1 / 15.0,
"d>": 1 / 15.0,
}
self.assertSparseDictEqual(expected, result)
def testSingleNaming(self):
a = Analysis("Jim, George and Bob are my friends. John Doe is not.")
result = single_naming.quantify(a)
self.assertAlmostEqual(3.0 / 14.0, result["single_naming"])
def setUp(self):
self.sentence = "I came. I saw. I conquered. I didn't elaborate."
self.analysis = Analysis(self.sentence)
def setUp(self):
self.analysis = Analysis("We like dogs, and we dislike cats.")
def testSimple(self):
sentence = "a b a b b"
# ("b","b") has negative PMI, the other two are positive
result = threshold_pmi.quantify(Analysis(sentence))
self.assertEquals(2 / 2000.0, result["threshold_pmi"])
def testWithHyphen(self):
sentence = "I'm a self-made man."
self.analysis = Analysis(sentence)
# Apostrophe in "I'm" and hyphen in "self-made" don't count.
# However, "self-made" counts as one word.
self.expected = {"mean_word_length": 14.0 / 4.0}
def testWithContraction(self):
sentence = "A little bit overcautious. Don't you think so?"
self.analysis = Analysis(sentence)
# Apostrophe in "Don't" doesn't count.
self.expected = {"mean_word_length": 36.0 / 8.0}
def getFeats():
# get cohesive markers
df = pd.read_csv('../ckxx_arff3/ckxx_cohesive_markers:1.csv', index_col=0)
# df = df.iloc[:20]
print(df.head())
# get num of tokens for each text
mynlp = StanfordCoreNLP('http://localhost', port=9000, lang='en')
totalTokens = {}
for fn in sorted(glob.glob('../ckxx_T/*') + glob.glob('../ckxx_O_XIN/*')):
if fn.endswith('analysis'): continue
# if fn == '../ckxx_O_XIN/XIN_0020': break
myAna1 = Analysis(filename=fn)
myAna1.stanfordnlp = mynlp
myAna1.loadcache()
# print(os.path.basename(myAna1.filename))
# print(len(myAna1.case_tokens()))
totalTokens[os.path.basename(myAna1.filename)] = len(
myAna1.case_tokens())
df2 = pd.DataFrame.from_dict(data=totalTokens, orient='index')
df2.columns = ['totalTokens']
df2.sort_index(axis=0, inplace=True)
print(df2.head())
# concat two df's
df = pd.concat([df, df2], axis=1)
# get raw counts
mycols = list(df.columns)
mycols.remove('totalTokens')
print(mycols[-5:])
df[mycols] = df[mycols].multiply(df['totalTokens'], axis="index")
print(df.head())
##############
# get entropy
# remove 'totalTokens'
df_new = df.iloc[:, :-1] # work on a copy, exclude last col = totalTokens
# df_new.drop(['totalTokens'], axis=1, inplace=True)
df_new['numCohMkrs'] = df_new.sum(axis=1)
print(df_new.head())
df_new.iloc[:, :-1] = df_new.iloc[:, :-1].div(df_new['numCohMkrs'], axis=0)
print(df_new.head(10))
df_new['entropy'] = \
- df_new.iloc[:, :-1].multiply(
np.log2(df_new.iloc[:, :-1])
).sum(axis=1)
print(df_new.head(10)) # first row 3.217797
# sanity check first row entropy:
ps = list(df_new.iloc[0, :-2])
en = -sum([x * math.log2(x) for x in ps if x != 0])
print(en) # 3.217796811598595
# CORRECT!
# get TTR: type / token
# number of non-zeros in each row: type
df_new['TTR1'] = 6 * df.astype(bool).sum(axis=1) / df['totalTokens']
df_new['TTR2'] = 6 * np.log(df.astype(bool).sum(axis=1)) / np.log(
df['totalTokens'])
df_new['class'] = 'T'
df_new.loc[df.index.str.contains('XIN'), 'class'] = 'O'
print(df_new.head(10))
# save
df_new.iloc[:, -5:-1].to_csv('ckxx_cohesive_markers_entropy_TTR.csv')
df_new.iloc[:, -5:].to_csv('ckxx_cohesive_markers_entropy_TTR_weka.csv',
index=0)
def testMultiContractions(self):
a = Analysis("What's the difference between what is shown "
"now and what has been shown before?")
result = contractions.quantify(a)
self.assertAlmostEqual(0.5, result["what's"])
def testExplicitNaming(self):
a = Analysis("She and he are better than John, Marie and Jim.")
result = explicit_naming.quantify(a)
self.assertAlmostEqual(3.0 * (2.0 / 3.0), result["explicit_naming"])
def testSyllableRatio(self):
a = Analysis("A test for vowels and such")
# 'vowels' counts as having two syllables
expected = 7 / 6.0
result = syllable_ratio.quantify(a)["syllable_ratio"]
self.assertAlmostEqual(expected, result)
def testWouldNot(self):
a = Analysis("what's wouldn't would not would not")
result = contractions.quantify(a)
self.assertAlmostEqual(0.5, result["wouldn't"])
