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author_disambiguation4_3.py
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#!/usr/bin/env python
# coding: utf-8
import re
import textdistance
import jellyfish
import itertools
import editdistance
import fuzzy
import pickle
import argparse
import pandas as pd
import numpy as np
from collections import Counter
from cdifflib import CSequenceMatcher
from fuzzywuzzy import fuzz
from tqdm import tqdm
import traceback
from glob import glob
chars = [',',";","\.","-",":","/","\\","_","\)","\("]
def rm_splChar(name):
name = str(name)
name1 = re.sub(" +","",name)
regex = "|".join(chars)
name1 = re.sub(regex,"", name1)
name2 = re.sub(regex,"", name)
#val = re.sub('[^A-Za-z]+', '', val)
return name1, name2
def char_dist(name1, name2):
name1=rm_splChar(name1)
name2=rm_splChar(name2)
return int(Counter(name1)==Counter(name2))
def diff_lib(name1, name2):
name1=name1.lower()
name2=name2.lower()
ratio=CSequenceMatcher(lambda x: x == ' ', name1, name2).ratio()
return ratio
def jaro_winkler_score(name1, name2):
jw_score=textdistance.jaro_winkler.normalized_similarity(name1,name2)
return jw_score
def levenshtein_score(name1, name2):
leven_score = textdistance.levenshtein.normalized_similarity(name1,name2)
return leven_score
def fuzzy_nysiis(name1, name2):
ny1=fuzzy.nysiis(name1)
ny2=fuzzy.nysiis(name2)
if (ny1 or ny2):
nysiis_score = editdistance.eval(ny1, ny2)/max(len(ny1),len(ny2))
else:
nysiis_score = 0
return nysiis_score
def fuzzy_DMetaphone(name1, name2):
d1=jellyfish.metaphone(name1)
d2=jellyfish.metaphone(name2)
if (d1 or d2):
meta_score = editdistance.eval(d1, d2)/max(len(d1),len(d2))
else:
meta_score = 0
return meta_score
#Soundex is a phonetic algorithm
def jellyfish_soundex(name1, name2):
s1=jellyfish.soundex(name1)
s2=jellyfish.soundex(name2)
sound_score = editdistance.eval(s1,s2)/max(len(s1),len(s2))
return sound_score
def fuzzy_wuzzy(name1, name2):
fuzz_score=fuzz.token_set_ratio(name1, name2)/100
return fuzz_score
def hamming_similarity(name1, name2):
h_score=textdistance.hamming.normalized_similarity(name1,name2)
return h_score
def jaccard_similarity(name1, name2):
j_score=textdistance.jaccard.normalized_similarity(name1,name2)
return j_score
def cosine_similarity(name1, name2):
c_score=textdistance.jaccard.normalized_similarity(name1,name2)
return c_score
def damerau_levenshtein_similarity(name1, name2):
dl_score=textdistance.damerau_levenshtein.normalized_similarity(name1,name2)
return dl_score
def sorensen_dice_similarity(name1, name2):
sd_score=textdistance.sorensen_dice.normalized_similarity(name1,name2)
return sd_score
def calculate_feats(name1, name2):
sim_score=[]
#sim_score.append(char_dist(name1, name2))
sim_score.append(diff_lib(name1,name2))
sim_score.append(jaro_winkler_score(name1, name2))
sim_score.append(levenshtein_score(name1, name2))
sim_score.append(1-fuzzy_nysiis(name1, name2))#distance
sim_score.append(1-fuzzy_DMetaphone(name1, name2))#distance
sim_score.append(1-jellyfish_soundex(name1,name2))#distance
sim_score.append(fuzzy_wuzzy(name1, name2))
sim_score.append(hamming_similarity(name1, name2))
sim_score.append(jaccard_similarity(name1, name2))
sim_score.append(cosine_similarity(name1, name2))
sim_score.append(damerau_levenshtein_similarity(name1, name2))
sim_score.append(sorensen_dice_similarity(name1, name2))
return sim_score
#problem 1 : different names reffering to same person--Name Linking (Problem 2 : Name Resolution Problem)
def lcs(name1, name2):
match = CSequenceMatcher(None, name1, name2).find_longest_match(0, len(name1), 0, len(name2))
common_subs=name1[match.a: match.a + match.size]
name1=re.sub(re.escape(common_subs),"",name1)
name2=re.sub(re.escape(common_subs),"",name2)
return name1,name2
def find_similar_names(org_df, names_df, index=0, size=50000) :
similar_names = []
success = 0
count = 0
try:
list_of_pairs=((x, y) for i, x in enumerate(names_df[['r_names','rid']].values) for j, y in enumerate(names_df[['r_names','rid']][index:index+size].values) if (i > j+index))
for name1, name2 in tqdm(list_of_pairs, total = (names_df['r_names'].shape[0])*size):
#for name1, name2 in tqdm(itertools.combinations(names_df['r_names'], 2), total=(names_df.shape[0]*(names_df.shape[0]-1))/2):
#keep_cnt += 1
n1, n10 = rm_splChar(name1[0])
n2, n20 = rm_splChar(name2[0])
check=len(set(n1.lower()).intersection(n2.lower()))/max(len(set(n1)),len(set(n2)))
vec5=[0]
if check > 0.70:
n11, n21 = lcs(n1, n2)
n101, n201 = lcs(n10,n20)
if (n11 or n21): # again changed to or from v5_3
vec1 = calculate_feats(n11, n21)
vec2 = calculate_feats(n11.lower(), n21.lower())
else:
vec1 = calculate_feats(n1, n2)
vec2 = calculate_feats(n1.lower(), n2.lower())
if (n101 or n201): #again changed to or from v5_3
vec3=calculate_feats(n101, n201)
vec4=calculate_feats(n101.lower(), n201.lower())
else:
vec3=calculate_feats(n10, n20)
vec4=calculate_feats(n10.lower(), n20.lower())
if max(sum(vec1),sum(vec2), sum(vec3), sum(vec4)) <= 10:
name1_dist = Counter(name1[0].lower())
name2_dist = Counter(name2[0].lower())
extra_in_name1 = name1_dist-name2_dist
extra_in_name2 = name2_dist-name1_dist
dist_count = extra_in_name1 + extra_in_name2
n15=name1[0].lower()
n25=name2[0].lower()
if (len(dist_count)==1) and ([True if (key.lower() in ['a','e','i','o','u','h'] and val==1) else False for key, val in dist_count.items()][0]) :
vec5=calculate_feats(name1[0],name2[0])
elif (len(extra_in_name1)==1 and len(extra_in_name2)==0) or (len(extra_in_name1)==0 and len(extra_in_name2)==1):
vec5=calculate_feats(name1[0],name2[0])
elif len(dist_count)==2 and any([v in [1,2] for k,v in dist_count.items()]):
if any([((pair[0] in dist_count.keys() and pair[1] in dist_count.keys()) or (pair[1] in dist_count.keys() and pair[0] in dist_count.keys())) for pair in char_pairs]):
vec5=calculate_feats(name1[0],name2[0])
vec5=np.array(vec5)+1.5
elif any([(part in n15) for part in part_of_name]) and any([(part in n25) for part in part_of_name]):
un=[',',':','-']
n15=re.sub("|".join(un),"",n15)
n25=re.sub("|".join(un),"",n25)
n17=re.sub("|".join(part_of_name),"",n15)
n27=re.sub("|".join(part_of_name),"",n25)
vec5=calculate_feats(n17,n27)
else:
continue
#if (sum(vec1) > 10 and sum(vec1) <= 10) and (sum(vec2) > 8 and sum(vec2) <= 10) and (sum(vec3) > 8 and sum(vec3) <= 10) and (sum(vec4) > 8 and sum(vec4) <= 10) :
if (sum(vec1) > 10) or (sum(vec2) > 10) or (sum(vec3) > 10) or (sum(vec4) > 10) or (n11.strip()=="" and n21.strip()=="") or (sum(vec5) > 10) :
inst1 = org_df[(org_df['advisorId'] == name1[1]) | (org_df['researcherId'] == name1[1])]["instituteId"]
inst2 = org_df[(org_df['advisorId'] == name2[1]) | (org_df['researcherId'] == name2[1])]["instituteId"]
dept1 = org_df[(org_df['advisorId'] == name1[1]) | (org_df['researcherId'] == name1[1])]["DepartmentId"]
dept2 = org_df[(org_df['advisorId'] == name2[1]) | (org_df['researcherId'] == name2[1])]["DepartmentId"]
common_inst=set(inst1).intersection(inst2)
common_dept=set(dept1).intersection(dept2)
if common_inst and common_dept:
similar_names.append((name1[0],name1[1],name2[0],name2[1], sum(vec1), sum(vec2), sum(vec3), sum(vec4),sum(vec5)))
success += 1
count += 1
except KeyboardInterrupt:
print("keyboard Interrupt")
except ZeroDivisionError:
print('divided by zero error')
except Exception as e:
print(name1, name2)
traceback.print_exc()
finally:
save_obj(similar_names, folder+"sn_"+str(index)+"_"+str(index+size))
print("Total Qualified Pairs: "+str(count))
print("Successful pairs: "+str(success))
#return similar_names
#print("Total Pairs: "+str(count))
#save_obj(similar_names, "result1/"+str(index)+"_"+str(size))
#print(similar_names)
print("*"*30+'Similar name completed'+"*"*30)
return #similar_names
def save_obj(obj, name ):
with open(name + '.pkl', 'wb') as f:
pickle.dump(obj, f, pickle.HIGHEST_PROTOCOL)
def load_obj(name):
with open(name, 'rb') as f:
return pickle.load(f)
#sim_names=find_similar_names(dataset, name_index, 0, 10, 0)
# def gen_newIndex(org_dataset, names, index, size) :
# similar_n = find_similar_names(org_dataset, names, index, size)
# for key in similar_n:
# index1 = names[names['r_names'].isin(similar_n[key])]['rid'].values
# names.loc[names['r_names'].isin(similar_n[key]),'rid'] = min(index1)
# #org_dataset["advId"] = org_dataset['dc.contributor.advisor[]'].map(names.set_index('r_names')['rid'])
# #org_dataset["studId"] = org_dataset['dc.creator.researcher[]'].map(names.set_index('r_names')['rid'])
# names.to_csv('result1/mod_researcher_index'+str(index)+'.csv', sep=",", index=False)
# #org_dataset.to_csv('mod_sodhganaga_dataset.csv', sep = ",", index = False)
# print('Done')
if __name__ == "__main__":
part_of_name=["k\.","kumar"]
char_pairs=[("i","e"),("u","o"),("i","y"),("u","a")]
folder="dataset_v5/v5_3/"
dataset=pd.read_csv(folder+"processed_sodhganga_mentorship_dept_rev_with_initial_ids.csv",sep=",")
name_index=pd.read_csv(folder+"index_file.csv",sep=",")
parser = argparse.ArgumentParser(description='Author name disambiguation')
parser.add_argument('--index', default = 0, type=int, help="Enter the value to start from")
parser.add_argument('--size', default = name_index.shape[0], type=int, help="Batch size")
args = parser.parse_args()
print(f"Similar names started for index between {args.index}, {(args.index+args.size)}: \n")
find_similar_names(dataset, name_index, args.index, args.size)