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9c2faf5
1
Parent(s):
5d99706
updated
Browse files
app.py
CHANGED
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@@ -1,17 +1,3 @@
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import subprocess
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# Run the pip install command for pyenchant
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subprocess.run(["pip", "install", "pyenchant"], check=True)
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# # Run the first command
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# subprocess.run(["apt", "install", "enchant", "--fix-missing", "-y"], check=True)
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# # Run the second command
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# subprocess.run(["apt", "install", "-qq", "enchant", "-y"], check=True)
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# # Run the pip install command for pyenchant
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# subprocess.run(["pip", "install", "pyenchant"], check=True)
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import streamlit as st
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import pandas as pd
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import pickle
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@@ -21,24 +7,31 @@ import joblib
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from googletrans import Translator
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from indictrans import Transliterator
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from pyphonetics import RefinedSoundex
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import enchant
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from bs4 import BeautifulSoup
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import re
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def main():
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st.title('Text Processing App')
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dictn = enchant.Dict("en_US")
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rs = RefinedSoundex()
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normalized_string_final=[]
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translator = Translator()
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trn = Transliterator(source='eng', target='hin')
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with open(r'./english_vocab.pkl', "rb") as fp:
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english_vocab=english
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with open(r'./hinglish_vocab.pkl', "rb") as fp:
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hinglish_vocab=hinglish
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english_vocab['and'] = ['and']
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@@ -57,241 +50,146 @@ def main():
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input_text = st.text_area("Enter the text:")
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total_translated = []
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if st.button('Process'):
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# Create a DataFrame with the user input text
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data = {'Text': [input_text]}
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df1 = pd.DataFrame(data)
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# Apply the clean_tweet function to the user input text
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df1['Text'] = df1['Text'].apply(clean_tweet)
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# Extract the cleaned text
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cleaned_text = df1['Text'].tolist()[0]
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# Process the cleaned text further if needed
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total_text = [cleaned_text]
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st.write("Input Text:", total_text)
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for i in tqdm(total_text):
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test_text=i.split()
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# english word change from vocab
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not_changed_idx=[]
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for i in range(len(test_text)):
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not_changed_idx.append(0)
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changed_text=[]
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changed_idx=[]
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# print("1st",changed_text)
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for i in range(len(test_text)):
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for key in english_vocab:
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done=0
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for val in english_vocab[key]:
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if(test_text[i]==val):
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# print("KEY = ",key,"VAL =",val,"i =",test_text[i],"ADJENCENCY_DATA =",adjacency_data[key])
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# print("yahan par",key,val,test_text[i])
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changed_text.append(key)
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changed_idx.append(i)
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not_changed_idx[i]=1
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done=1
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# print("breaking")
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break
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if done==1:
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# print("breaking again")
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break
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normalized_string=[]
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res = dict(zip(changed_idx, changed_text))
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# print(res)
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for i in range(len(test_text)):
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try:
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normalized_string.append(res[i])
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except:
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normalized_string.append(test_text[i])
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print("English Normalized String
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# hinglish word change
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test_list = [i for i in range(len(test_text))]
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changed_hing_idx = [i for i in test_list if i not in changed_idx]
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try:
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hinglish_text_part.append(test_text[i])
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except:
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pass
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# print(hinglish_text_part)
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changed_text2=[]
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changed_idx2=[]
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# print("1st hing",changed_text2)
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for i in range(len(hinglish_text_part)):
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for key in hinglish_vocab:
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done=0
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for val in
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if
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# print("KEY = ",key,"VAL =",val,"i =",test_text[i],"ADJENCENCY_DATA =",adjacency_data[key])
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# print(key,val,hinglish_text_part[i])
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changed_text2.append(key)
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changed_idx2.append(i)
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done=1
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# print("breaking")
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break
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if done==1:
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# print("breaking again")
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break
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# making changed text and idx to a dictionary with two lists
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normalized_string2=[]
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# print("changed_text 2 ",changed_text2)
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res2 = dict(zip(changed_idx2, changed_text2))
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# print(res2)
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for i in range(len(hinglish_text_part)):
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try:
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normalized_string2.append(res2[i])
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except:
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normalized_string2.append(hinglish_text_part[i])
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# print("normalised string 2 :",normalized_string2)
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changed_idx=list(set(changed_idx))
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changed_idx.sort()
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# print("changed idx",changed_idx)
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for i in changed_idx:
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normalized_string2.append(res[i])
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print("Hinglish Normalized String
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# print(not_changed_idx)
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# finding phoneme and leventise distance for unchanged word
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for i in range(len(not_changed_idx)):
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try:
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if not_changed_idx[i]==0:
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eng_phoneme_correction=[]
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for j in english_vocab:
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# print(normalized_string2[i],j)
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try:
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phoneme=rs.distance(normalized_string2[i],j)
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except:
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pass
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if phoneme<=1:
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eng_phoneme_correction.append(j)
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eng_lev_correction=[]
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for k in eng_phoneme_correction:
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dist=lev(normalized_string2[i],k)
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if dist <=2:
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eng_lev_correction.append(k)
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# print(eng_phoneme_correction)
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# print(eng_lev_correction)
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hing_phoneme_correction=[]
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for j in hinglish_vocab:
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try:
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phoneme=rs.distance(normalized_string2[i],j)
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except:
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pass
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if phoneme<=1:
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hing_phoneme_correction.append(j)
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hing_lev_correction=[]
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for k in hing_phoneme_correction:
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dist=lev(normalized_string2[i],k)
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if dist <=2:
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hing_lev_correction.append(k)
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# print(hing_phoneme_correction)
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# print(hing_lev_correction)
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eng_lev_correction.extend(hing_lev_correction)
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new_correction=eng_lev_correction
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eng_lev_correction=[]
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# hing_lev_correction=[]
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# print(eng_lev_correction)
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for l in new_correction:
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dist=lev(normalized_string2[i],l)
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eng_lev_correction.append(dist)
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min_val=min(eng_lev_correction)
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min_idx=eng_lev_correction.index(min_val)
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suggestion=dictn.suggest(new_correction[min_idx])
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suggestion_lit=[]
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for t in suggestion:
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dist=lev(new_correction[min_idx],t)
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suggestion_lit.append(dist)
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min_suggestion_val=min(suggestion_lit)
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min_suggestion_idx=suggestion_lit.index(min_suggestion_val)
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# print("Suggestions : ",min_suggestion_val)
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# print(suggestion[min_suggestion_idx])
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normalized_string2[i]=suggestion[min_suggestion_idx]
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except:
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pass
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normalized_string_final=normalized_string2
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print("Phoneme levenshtein Distionary suggestion Normalized String
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# sentence tagging
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classifier=joblib.load(r"./classifer.joblib")
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classify=[]
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for i in normalized_string:
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test_classify=classifier(i)
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classify.append(test_classify[0].get("label"))
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# print(normalized_string)
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# print(classify)
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for i in range(len(classify)):
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if classify[i]=='en':
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try:
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normalized_string[i]=translator.translate(normalized_string[i]
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except:
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normalized_string[i]="delete"
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print("English -> Hindi Translated String
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conversion_list=[]
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print("Hinglish -> Hindi Transliterated String : ",conversion_list)
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conversion_list=normalized_string
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string=""
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sentence=[]
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for i in conversion_list:
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string=i+' '+string
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sentence.append(string)
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translated=[]
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for i in tqdm(sentence):
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try:
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translated_text = translator.translate(i
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translated.append(translated_text.text)
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except:
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translated.append("delete")
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print("Hindi -> English Translated String
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total_translated.append(translated[0])
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st.write("Hinglish Normalized String:", normalized_string)
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st.write("Phoneme Levenshtein Dictionary Suggestion Normalized String:", normalized_string_final)
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st.write("English -> Hindi Translated String:", normalized_string)
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st.write("Hinglish -> Hindi Transliterated String:", conversion_list)
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st.write("Hindi -> English Translated String:", translated)
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if __name__ == '__main__':
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main()
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import streamlit as st
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import pandas as pd
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import pickle
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from googletrans import Translator
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from indictrans import Transliterator
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from pyphonetics import RefinedSoundex
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from bs4 import BeautifulSoup
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import re
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def closest_match(word, vocabulary):
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best_match = None
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best_distance = float('inf')
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for vocab_word in vocabulary:
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dist = lev(word, vocab_word)
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if dist < best_distance:
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best_distance = dist
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best_match = vocab_word
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return best_match
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def main():
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st.title('Text Processing App')
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rs = RefinedSoundex()
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normalized_string_final=[]
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translator = Translator()
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trn = Transliterator(source='eng', target='hin')
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with open(r'./english_vocab.pkl', "rb") as fp:
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english = pickle.load(fp)
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english_vocab=english
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with open(r'./hinglish_vocab.pkl', "rb") as fp:
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hinglish = pickle.load(fp)
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hinglish_vocab=hinglish
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english_vocab['and'] = ['and']
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input_text = st.text_area("Enter the text:")
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total_translated = []
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if st.button('Process'):
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data = {'Text': [input_text]}
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df1 = pd.DataFrame(data)
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df1['Text'] = df1['Text'].apply(clean_tweet)
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cleaned_text = df1['Text'].tolist()[0]
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total_text = [cleaned_text]
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st.write("Input Text:", total_text)
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for i in tqdm(total_text):
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test_text=i.split()
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not_changed_idx=[]
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for i in range(len(test_text)):
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not_changed_idx.append(0)
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changed_text=[]
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changed_idx=[]
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for i in range(len(test_text)):
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for key in english_vocab:
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done=0
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for val in english_vocab[key]:
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if(test_text[i]==val):
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changed_text.append(key)
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changed_idx.append(i)
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not_changed_idx[i]=1
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done=1
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break
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if done==1:
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break
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normalized_string=[]
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res = dict(zip(changed_idx, changed_text))
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for i in range(len(test_text)):
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try:
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normalized_string.append(res[i])
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except:
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normalized_string.append(test_text[i])
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print("English Normalized String:", normalized_string)
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# hinglish word change
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test_list = [i for i in range(len(test_text))]
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changed_hing_idx = [i for i in test_list if i not in changed_idx]
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hinglish_text_part = [test_text[i] for i in changed_hing_idx]
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changed_text2 = []
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changed_idx2 = []
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for i in range(len(hinglish_text_part)):
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for key in hinglish_vocab:
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done = 0
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for val in hinglish_vocab[key]:
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if hinglish_text_part[i] == val:
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changed_text2.append(key)
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changed_idx2.append(i)
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done = 1
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break
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if done == 1:
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break
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normalized_string2 = []
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res2 = dict(zip(changed_idx2, changed_text2))
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for i in range(len(hinglish_text_part)):
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try:
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normalized_string2.append(res2[i])
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except:
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normalized_string2.append(hinglish_text_part[i])
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for i in changed_idx:
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normalized_string2.append(res[i])
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print("Hinglish Normalized String:", normalized_string)
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# finding phoneme and leventise distance for unchanged word
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for i in range(len(not_changed_idx)):
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try:
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if not_changed_idx[i] == 0:
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eng_phoneme_correction = []
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for j in english_vocab:
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| 129 |
try:
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| 130 |
+
phoneme = rs.distance(normalized_string2[i], j)
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| 131 |
except:
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| 132 |
pass
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| 133 |
+
if phoneme <= 1:
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| 134 |
eng_phoneme_correction.append(j)
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| 135 |
+
eng_lev_correction = []
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| 136 |
for k in eng_phoneme_correction:
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| 137 |
+
dist = lev(normalized_string2[i], k)
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+
if dist <= 2:
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eng_lev_correction.append(k)
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| 140 |
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| 141 |
eng_lev_correction.extend(hing_lev_correction)
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| 142 |
+
new_correction = eng_lev_correction
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| 143 |
+
eng_lev_correction = []
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| 144 |
for l in new_correction:
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| 145 |
+
dist = lev(normalized_string2[i], l)
|
| 146 |
eng_lev_correction.append(dist)
|
| 147 |
+
min_val = min(eng_lev_correction)
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| 148 |
+
min_idx = eng_lev_correction.index(min_val)
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|
| 149 |
|
| 150 |
+
suggestion = closest_match(new_correction[min_idx], english_vocab.keys())
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| 151 |
+
normalized_string2[i] = suggestion
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|
| 152 |
except:
|
| 153 |
pass
|
| 154 |
+
|
| 155 |
+
normalized_string_final = normalized_string2
|
| 156 |
+
print("Phoneme levenshtein Distionary suggestion Normalized String:", normalized_string_final)
|
| 157 |
+
|
| 158 |
# sentence tagging
|
| 159 |
+
classifier = joblib.load(r"./classifer.joblib")
|
| 160 |
+
classify = []
|
| 161 |
for i in normalized_string:
|
| 162 |
+
test_classify = classifier(i)
|
| 163 |
classify.append(test_classify[0].get("label"))
|
| 164 |
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|
| 165 |
for i in range(len(classify)):
|
| 166 |
+
if classify[i] == 'en':
|
| 167 |
try:
|
| 168 |
+
normalized_string[i] = translator.translate(normalized_string[i], src='en', dest='hi').text
|
| 169 |
except:
|
| 170 |
+
normalized_string[i] = "delete"
|
| 171 |
+
print("English -> Hindi Translated String:", normalized_string)
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|
| 172 |
|
| 173 |
+
conversion_list = [trn.transform(i) for i in normalized_string]
|
| 174 |
+
print("Hinglish -> Hindi Transliterated String:", conversion_list)
|
| 175 |
|
| 176 |
+
sentence = [" ".join(conversion_list)]
|
| 177 |
+
translated = []
|
| 178 |
+
for i in sentence:
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|
| 179 |
try:
|
| 180 |
+
translated_text = translator.translate(i, src='hi', dest='en')
|
| 181 |
translated.append(translated_text.text)
|
| 182 |
except:
|
| 183 |
translated.append("delete")
|
| 184 |
+
print("Hindi -> English Translated String:", translated)
|
| 185 |
total_translated.append(translated[0])
|
| 186 |
|
| 187 |
+
st.write("English Normalized String:", normalized_string)
|
| 188 |
+
st.write("Hinglish Normalized String:", normalized_string)
|
| 189 |
+
st.write("Phoneme Levenshtein Dictionary Suggestion Normalized String:", normalized_string_final)
|
| 190 |
+
st.write("English -> Hindi Translated String:", normalized_string)
|
| 191 |
+
st.write("Hinglish -> Hindi Transliterated String:", conversion_list)
|
| 192 |
+
st.write("Hindi -> English Translated String:", translated)
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|
| 193 |
|
| 194 |
if __name__ == '__main__':
|
| 195 |
+
main()
|