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TDA/lections/notebooks/lec5_text2vec_classifier.ipynb
Mokhov Andrey df4041e9ab lab03: SVM update
2023-03-06 16:25:25 +03:00

64 KiB
Исходник Ответственный История 

from sklearn.neighbors import KNeighborsClassifier
from sklearn.datasets import fetch_20newsgroups
from sklearn.feature_extraction.text import CountVectorizer, TfidfTransformer 
import numpy as np
import pandas as pd
from sklearn.metrics import confusion_matrix, classification_report, accuracy_score, roc_auc_score
from sklearn.pipeline import Pipeline
import gensim.downloader
print(list(gensim.downloader.info()['models'].keys()))
['fasttext-wiki-news-subwords-300', 'conceptnet-numberbatch-17-06-300', 'word2vec-ruscorpora-300', 'word2vec-google-news-300', 'glove-wiki-gigaword-50', 'glove-wiki-gigaword-100', 'glove-wiki-gigaword-200', 'glove-wiki-gigaword-300', 'glove-twitter-25', 'glove-twitter-50', 'glove-twitter-100', 'glove-twitter-200', '__testing_word2vec-matrix-synopsis']

GloVe

glove_model = gensim.downloader.load("glove-twitter-25")  # load glove vectors
print(glove_model['cat']) # word embedding for 'cat'
glove_model.most_similar("cat")  # show words that similar to word 'cat'
[-0.96419  -0.60978   0.67449   0.35113   0.41317  -0.21241   1.3796
  0.12854   0.31567   0.66325   0.3391   -0.18934  -3.325    -1.1491
 -0.4129    0.2195    0.8706   -0.50616  -0.12781  -0.066965  0.065761
  0.43927   0.1758   -0.56058   0.13529 ]

[('dog', 0.9590820074081421),
 ('monkey', 0.920357882976532),
 ('bear', 0.9143136739730835),
 ('pet', 0.9108031392097473),
 ('girl', 0.8880629539489746),
 ('horse', 0.8872726559638977),
 ('kitty', 0.8870542049407959),
 ('puppy', 0.886769711971283),
 ('hot', 0.886525571346283),
 ('lady', 0.8845519423484802)]
glove_model.similarity('cat', 'bus')
0.60927683
categories = ['alt.atheism', 'comp.graphics', 'sci.space'] 
remove = ('headers', 'footers', 'quotes')
twenty_train = fetch_20newsgroups(subset='train', shuffle=True, random_state=42, categories = categories, remove = remove )
twenty_test = fetch_20newsgroups(subset='test', shuffle=True, random_state=42, categories = categories, remove = remove )

Векторизуем обучающую выборку

Получаем матрицу "Документ-термин"

vectorizer = CountVectorizer(stop_words='english')
train_data = vectorizer.fit_transform(twenty_train['data'])
CV_data=pd.DataFrame(train_data.toarray(), columns=vectorizer.get_feature_names_out())
print(CV_data.shape)
CV_data.head()
(1657, 23297)
<style scoped> .dataframe tbody tr th:only-of-type { vertical-align: middle; } .dataframe tbody tr th { vertical-align: top; } .dataframe thead th { text-align: right; } </style>
00 000 0000 00000 000000 000005102000 000062david42 000100255pixel 00041032 0004136 ... zurbrin zurich zus zvi zwaartepunten zwak zwakke zware zwarte zyxel
0 0 0 0 0 0 0 0 0 0 0 ... 0 0 0 0 0 0 0 0 0 0
1 0 0 0 0 0 0 0 0 0 0 ... 0 0 0 0 0 0 0 0 0 0
2 0 0 0 0 0 0 0 0 0 0 ... 0 0 0 0 0 0 0 0 0 0
3 0 0 0 0 0 0 0 0 0 0 ... 0 0 0 0 0 0 0 0 0 0
4 0 0 0 0 0 0 0 0 0 0 ... 0 0 0 0 0 0 0 0 0 0

5 rows × 23297 columns

# Создадим список слов, присутствующих в словаре.
words_vocab=CV_data.columns
print(words_vocab[0:10])
Index(['00', '000', '0000', '00000', '000000', '000005102000', '000062david42',
       '000100255pixel', '00041032', '0004136'],
      dtype='object')

Векторизуем с помощью GloVe

Нужно для каждого документа сложить glove-вектора слов, из которых он состоит. В результате получим вектор документа как сумму векторов слов, из него состоящих

Посмотрим на примере как будет работать векторизация

text_data = ['Hello world I love python', 'This is a great computer game! 00 000 zyxel']
# Векторизуем с помощью обученного CountVectorizer
X = vectorizer.transform(text_data)
CV_text_data=pd.DataFrame(X.toarray(), columns=vectorizer.get_feature_names_out())
CV_text_data
<style scoped> .dataframe tbody tr th:only-of-type { vertical-align: middle; } .dataframe tbody tr th { vertical-align: top; } .dataframe thead th { text-align: right; } </style>
00 000 0000 00000 000000 000005102000 000062david42 000100255pixel 00041032 0004136 ... zurbrin zurich zus zvi zwaartepunten zwak zwakke zware zwarte zyxel
0 0 0 0 0 0 0 0 0 0 0 ... 0 0 0 0 0 0 0 0 0 0
1 1 1 0 0 0 0 0 0 0 0 ... 0 0 0 0 0 0 0 0 0 1

2 rows × 23297 columns

# Создадим датафрейм, в который будем сохранять вектор документа
glove_data=pd.DataFrame()

# Пробегаем по каждой строке (по каждому документу)
for i in range(CV_text_data.shape[0]):
    
    # Вектор одного документа с размерностью glove-модели:
    one_doc = np.zeros(25) 
    
    # Пробегаемся по каждому документу, смотрим, какие слова документа присутствуют в нашем словаре
    # Суммируем glove-вектора каждого известного слова в one_doc
    for word in words_vocab[CV_text_data.iloc[i,:] >= 1]:
        if word in glove_model.key_to_index.keys(): 
            print(word, ': ', glove_model[word])
            one_doc += glove_model[word]
    print(text_data[i], ': ', one_doc)
    glove_data=glove_data.append(pd.DataFrame([one_doc]))    
print('glove_data: ', glove_data)
hello :  [-0.77069    0.12827    0.33137    0.0050893 -0.47605   -0.50116
  1.858      1.0624    -0.56511    0.13328   -0.41918   -0.14195
 -2.8555    -0.57131   -0.13418   -0.44922    0.48591   -0.6479
 -0.84238    0.61669   -0.19824   -0.57967   -0.65885    0.43928
 -0.50473  ]
love :  [-0.62645  -0.082389  0.070538  0.5782   -0.87199  -0.14816   2.2315
  0.98573  -1.3154   -0.34921  -0.8847    0.14585  -4.97     -0.73369
 -0.94359   0.035859 -0.026733 -0.77538  -0.30014   0.48853  -0.16678
 -0.016651 -0.53164   0.64236  -0.10922 ]
python :  [-0.25645  -0.22323   0.025901  0.22901   0.49028  -0.060829  0.24563
 -0.84854   1.5882   -0.7274    0.60603   0.25205  -1.8064   -0.95526
  0.44867   0.013614  0.60856   0.65423   0.82506   0.99459  -0.29403
 -0.27013  -0.348    -0.7293    0.2201  ]
world :  [ 0.10301   0.095666 -0.14789  -0.22383  -0.14775  -0.11599   1.8513
  0.24886  -0.41877  -0.20384  -0.08509   0.33246  -4.6946    0.84096
 -0.46666  -0.031128 -0.19539  -0.037349  0.58949   0.13941  -0.57667
 -0.44426  -0.43085  -0.52875   0.25855 ]
Hello world I love python :  [ -1.55058002  -0.081683     0.27991899   0.58846928  -1.00551002
  -0.82613902   6.18642995   1.44844997  -0.71108004  -1.14717001
  -0.78294002   0.58841    -14.32649982  -1.41929996  -1.09575997
  -0.430875     0.87234702  -0.806399     0.27203003   2.23921998
  -1.23571999  -1.31071102  -1.96934     -0.17641005  -0.1353    ]
computer :  [ 0.64005  -0.019514  0.70148  -0.66123   1.1723   -0.58859   0.25917
 -0.81541   1.1708    1.1413   -0.15405  -0.11369  -3.8414   -0.87233
  0.47489   1.1541    0.97678   1.1107   -0.14572  -0.52013  -0.52234
 -0.92349   0.34651   0.061939 -0.57375 ]
game :  [ 1.146     0.3291    0.26878  -1.3945   -0.30044   0.77901   1.3537
  0.37393   0.50478  -0.44266  -0.048706  0.51396  -4.3136    0.39805
  1.197     0.10287  -0.17618  -1.2881   -0.59801   0.26131  -1.2619
  0.39202   0.59309  -0.55232   0.005087]
great :  [-8.4229e-01  3.6512e-01 -3.8841e-01 -4.6118e-01  2.4301e-01  3.2412e-01
  1.9009e+00 -2.2630e-01 -3.1335e-01 -1.0970e+00 -4.1494e-03  6.2074e-01
 -5.0964e+00  6.7418e-01  5.0080e-01 -6.2119e-01  5.1765e-01 -4.4122e-01
 -1.4364e-01  1.9130e-01 -7.4608e-01 -2.5903e-01 -7.8010e-01  1.1030e-01
 -2.7928e-01]
zyxel :  [ 0.79234   0.067376 -0.22639  -2.2272    0.30057  -0.85676  -1.7268
 -0.78626   1.2042   -0.92348  -0.83987  -0.74233   0.29689  -1.208
  0.98706  -1.1624    0.61415  -0.27825   0.27813   1.5838   -0.63593
 -0.10225   1.7102   -0.95599  -1.3867  ]
This is a great computer game! 00 000 zyxel :  [  1.73610002   0.74208201   0.35545996  -4.74411008   1.41543998
  -0.34222007   1.78697008  -1.45404002   2.56643     -1.32184002
  -1.04677537   0.27867999 -12.95450976  -1.00809997   3.15975004
  -0.52662008   1.93239999  -0.89686999  -0.60924001   1.51628
  -3.16624993  -0.89275002   1.86969995  -1.33607102  -2.23464306]
glove_data:          0         1         2         3        4         5        6        7   \
0 -1.55058 -0.081683  0.279919  0.588469 -1.00551 -0.826139  6.18643  1.44845   
0  1.73610  0.742082  0.355460 -4.744110  1.41544 -0.342220  1.78697 -1.45404   

        8        9   ...        15        16        17       18       19  \
0 -0.71108 -1.14717  ... -0.430875  0.872347 -0.806399  0.27203  2.23922   
0  2.56643 -1.32184  ... -0.526620  1.932400 -0.896870 -0.60924  1.51628   

        20        21       22        23        24  
0 -1.23572 -1.310711 -1.96934 -0.176410 -0.135300  
0 -3.16625 -0.892750  1.86970 -1.336071 -2.234643  

[2 rows x 25 columns]

C:\Users\Андрей\AppData\Local\Temp\ipykernel_29476\129113310.py:17: FutureWarning: The frame.append method is deprecated and will be removed from pandas in a future version. Use pandas.concat instead.
  glove_data=glove_data.append(pd.DataFrame([one_doc]))

def text2vec(text_data):
    
    # Векторизуем с помощью обученного CountVectorizer
    X = vectorizer.transform(text_data)
    CV_text_data=pd.DataFrame(X.toarray(), columns=vectorizer.get_feature_names_out())
    CV_text_data
    # Создадим датафрейм, в который будем сохранять вектор документа
    glove_data=pd.DataFrame()

    # Пробегаем по каждой строке (по каждому документу)
    for i in range(CV_text_data.shape[0]):

        # Вектор одного документа с размерностью glove-модели:
        one_doc = np.zeros(25) 

        # Пробегаемся по каждому документу, смотрим, какие слова документа присутствуют в нашем словаре
        # Суммируем glove-вектора каждого известного слова в one_doc
        for word in words_vocab[CV_text_data.iloc[i,:] >= 1]:
            if word in glove_model.key_to_index.keys(): 
                #print(word, ': ', glove_model[word])
                one_doc += glove_model[word]
        #print(text_data[i], ': ', one_doc)
        glove_data = pd.concat([glove_data, pd.DataFrame([one_doc])], axis = 0)
    #print('glove_data: ', glove_data)
    return glove_data

glove_data
<style scoped> .dataframe tbody tr th:only-of-type { vertical-align: middle; } .dataframe tbody tr th { vertical-align: top; } .dataframe thead th { text-align: right; } </style>
0 1 2 3 4 5 6 7 8 9 ... 15 16 17 18 19 20 21 22 23 24
0 -1.55058 -0.081683 0.279919 0.588469 -1.00551 -0.826139 6.18643 1.44845 -0.71108 -1.14717 ... -0.430875 0.872347 -0.806399 0.27203 2.23922 -1.23572 -1.310711 -1.96934 -0.176410 -0.135300
0 1.73610 0.742082 0.355460 -4.744110 1.41544 -0.342220 1.78697 -1.45404 2.56643 -1.32184 ... -0.526620 1.932400 -0.896870 -0.60924 1.51628 -3.16625 -0.892750 1.86970 -1.336071 -2.234643

2 rows × 25 columns

one_doc
array([  1.73610002,   0.74208201,   0.35545996,  -4.74411008,
         1.41543998,  -0.34222007,   1.78697008,  -1.45404002,
         2.56643   ,  -1.32184002,  -1.04677537,   0.27867999,
       -12.95450976,  -1.00809997,   3.15975004,  -0.52662008,
         1.93239999,  -0.89686999,  -0.60924001,   1.51628   ,
        -3.16624993,  -0.89275002,   1.86969995,  -1.33607102,
        -2.23464306])
train_data_glove = text2vec(twenty_train['data']);
train_data_glove
<style scoped> .dataframe tbody tr th:only-of-type { vertical-align: middle; } .dataframe tbody tr th { vertical-align: top; } .dataframe thead th { text-align: right; } </style>
0 1 2 3 4 5 6 7 8 9 ... 15 16 17 18 19 20 21 22 23 24
0 -8.521142 2.020376 -10.802921 3.167636 0.252469 15.544048 17.631184 -32.581192 9.696540 -11.103087 ... 2.810453 7.900215 0.962129 17.691130 -1.252574 -10.098049 0.500113 1.348694 2.186150 -16.556824
0 6.576228 20.336350 -32.675150 -9.073872 17.515655 -6.488794 59.458419 -75.384298 13.323775 -14.443218 ... 21.407738 23.525118 0.325680 19.871444 -27.585188 -4.559155 -7.417482 -16.694553 -0.197711 -58.948193
0 1.329914 3.060870 -1.868484 1.392735 -1.335277 -5.014955 12.859476 -9.978156 -0.869613 -2.031490 ... 2.925134 2.872930 2.184486 3.831770 -0.877866 -0.927770 0.700101 -9.855365 -5.419429 -2.279330
0 -4.866150 -0.273176 3.515124 -5.008165 -1.236789 -7.951168 -11.015882 -3.496241 16.024286 -9.388742 ... -0.471141 3.575378 6.193222 0.349430 15.040248 -10.369132 -0.848717 -0.564796 -1.114126 -7.844431
0 -3.115007 -1.805252 -5.419340 -0.393406 -0.406461 -2.724340 7.898330 -15.619113 0.231822 -3.628156 ... 5.944151 8.309932 -0.656084 12.178709 -6.118551 -3.286376 3.450946 2.055343 0.463787 -12.644626
... ... ... ... ... ... ... ... ... ... ... ... ... ... ... ... ... ... ... ... ... ...
0 -0.930954 4.974043 -8.147008 -5.147130 3.960455 -1.344022 7.818063 -25.427420 4.624732 -7.218097 ... 3.623038 4.453189 2.405320 8.032963 -8.029539 0.838867 -4.757457 -5.755052 -9.496197 -21.542710
0 -0.770690 0.128270 0.331370 0.005089 -0.476050 -0.501160 1.858000 1.062400 -0.565110 0.133280 ... -0.449220 0.485910 -0.647900 -0.842380 0.616690 -0.198240 -0.579670 -0.658850 0.439280 -0.504730
0 1.491177 6.992638 -7.921970 -7.157521 6.641657 -2.958020 12.820770 -18.502946 6.838083 -2.717310 ... -1.344873 4.170405 -0.178030 5.699992 -7.295038 -3.683306 -2.718006 -0.117608 -7.205832 -13.863438
0 2.523770 5.817394 2.184340 -2.996497 -0.267181 -10.059634 6.344402 -2.047127 2.679123 -7.642505 ... -1.230296 1.409746 -3.322040 -5.068259 -0.648718 0.753010 -6.220990 -5.012004 -1.518542 -10.156440
0 -0.118691 11.860546 -2.567264 -10.955913 -4.239322 -9.340552 21.189778 -10.895375 2.659030 -3.848115 ... 0.726191 11.634998 -5.447248 1.293007 -7.882002 -2.527453 0.298939 -6.107062 3.365051 -15.641826

1657 rows × 25 columns

train_data
<1657x23297 sparse matrix of type '<class 'numpy.int64'>'
	with 106580 stored elements in Compressed Sparse Row format>
clf = KNeighborsClassifier(n_neighbors = 5)
clf.fit(train_data_glove, twenty_train['target'])
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KNeighborsClassifier()
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KNeighborsClassifier()
test_data_glove = text2vec(twenty_test['data']);
test_data_glove
<style scoped> .dataframe tbody tr th:only-of-type { vertical-align: middle; } .dataframe tbody tr th { vertical-align: top; } .dataframe thead th { text-align: right; } </style>
0 1 2 3 4 5 6 7 8 9 ... 15 16 17 18 19 20 21 22 23 24
0 -6.760635 5.063863 -2.779060 3.699120 -2.858086 0.135230 20.811229 -19.425567 7.302950 -5.826012 ... 3.833378 6.794452 -0.921720 12.187404 -5.547615 -4.133999 3.588260 -0.497106 -2.542142 -11.362855
0 1.632616 2.512300 -0.745513 -3.081154 2.182067 -1.988816 7.533100 -1.015740 -0.829598 -2.764237 ... 0.791851 2.114150 -2.249193 -0.163590 -1.177710 -2.496928 -5.074085 -2.666947 0.662050 -3.590550
0 2.115766 2.142060 -0.445607 -3.229030 1.154580 -2.877278 6.399954 -10.445769 2.230760 -3.299899 ... 4.388870 8.515056 -0.766260 3.549431 -1.643443 -0.825730 -2.968016 -0.808924 -0.000160 -7.468189
0 -0.802784 5.199443 4.294071 -7.390966 2.747166 -1.359952 15.032628 -1.601590 1.474406 2.570105 ... 3.043432 6.176236 -6.193988 -3.990476 -2.345854 -5.534376 -8.925422 1.553300 0.905790 -12.824533
0 29.926489 65.324993 -25.059592 -64.080130 77.565282 -34.614604 75.643770 -115.600859 90.847175 -42.971146 ... 40.956031 50.322156 -19.537098 28.903925 -34.643949 -69.894146 -94.992145 -48.601895 -29.098555 -91.934770
... ... ... ... ... ... ... ... ... ... ... ... ... ... ... ... ... ... ... ... ... ...
0 1.829235 4.513807 2.916520 2.237308 -1.704831 -1.811192 22.196895 -12.858912 -4.054810 -3.130457 ... 6.019246 8.949456 -4.682214 -5.648911 -1.026898 3.719006 2.449941 -6.487197 1.340930 -7.325196
0 -0.963815 5.491164 3.567377 -6.048021 -5.059298 -0.977958 15.131499 -0.904470 2.185990 -1.459807 ... 0.968499 4.725793 -0.726944 1.328612 -3.144209 1.643127 -1.259245 -0.880740 -6.713165 -3.115454
0 6.801324 15.348126 -17.051718 5.030998 9.332448 -5.716691 56.409175 -56.250411 -4.028209 -11.687558 ... 22.884424 12.940570 1.058664 21.879058 -20.897253 2.537755 3.774890 -11.495336 -2.609774 -36.597559
0 1.054090 0.764524 1.958340 -1.085245 -0.441392 -0.421970 6.139770 -0.612219 -2.251460 -0.465165 ... 0.377958 1.957450 -1.705220 -0.509700 0.016110 1.461620 1.589069 2.267340 0.447919 -0.469250
0 -18.387286 13.274879 -7.895913 -1.831442 -10.424961 -12.248442 32.153890 -40.169293 13.089525 -21.306493 ... 6.497279 8.340729 4.996109 23.442078 -3.701088 -11.671505 9.209790 -10.002501 -0.815266 -17.024052

1102 rows × 25 columns

predict = clf.predict(test_data_glove )
print (confusion_matrix(twenty_test['target'], predict))
print(classification_report(twenty_test['target'], predict))
[[225  35  59]
 [ 26 313  50]
 [ 56  98 240]]
              precision    recall  f1-score   support

           0       0.73      0.71      0.72       319
           1       0.70      0.80      0.75       389
           2       0.69      0.61      0.65       394

    accuracy                           0.71      1102
   macro avg       0.71      0.71      0.70      1102
weighted avg       0.71      0.71      0.70      1102
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