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Step1_getData.py
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# python3
# -*- coding:utf-8 -*-
"""
@author:野山羊骑士
@e-mail:thankyoulaojiang@163.com
@file:PycharmProject-PyCharm-Step1_getData.py
@time:2021/8/12 15:48
"""
import sys
import csv
import pandas as pd
import numpy as np
import random
from sklearn.model_selection import train_test_split
class GetData():
def __init__(self):
PATH = '/home/jlk/Project/023_CancerTrans/GDSC_data/'
rnafile = PATH + '/Cell_line_RMA_proc_basalExp.txt'
smilefile = PATH + '/smile_inchi.csv'
pairfile = PATH + '/GDSC2_fitted_dose_response_25Feb20.xlsx'
drug_infofile = PATH + "/Drug_listTue_Aug10_2021.csv"
drug_thred = PATH + '/IC50_thred.txt'
self.pairfile = pairfile
self.drugfile = drug_infofile
self.rnafile = rnafile
self.smilefile = smilefile
self.drug_thred = drug_thred
def getDrug(self):
# 读取 smile_inchi.csv
drugdata = pd.read_csv(self.smilefile,index_col=0)
return drugdata
def _filter_pair(self,drug_cell_df):
print("#"*50)
print("step1 过滤细胞系....")
print("在检查细胞系rna 表达矩阵的时候发现4个细胞系没有表达记录")
# ['DATA.908134', 'DATA.1789883', 'DATA.908120', 'DATA.908442'] not in index
not_index = ['908134', '1789883', '908120', '908442']
print(drug_cell_df.shape)
drug_cell_df = drug_cell_df[~drug_cell_df['COSMIC_ID'].isin(not_index)]
print(drug_cell_df.shape)
print("step2 过滤药物....")
print("对于部分Drug没有记录PuchemID,得不到smile")
pub_df = pd.read_csv(self.drugfile)
pub_df = pub_df.dropna(subset=['PubCHEM'])
pub_df = pub_df[(pub_df['PubCHEM'] != 'none') & (pub_df['PubCHEM'] != 'several')]
print(drug_cell_df.shape)
drug_cell_df = drug_cell_df[drug_cell_df['DRUG_ID'].isin(pub_df['drug_id'])]
print(drug_cell_df.shape)
return drug_cell_df
def _stat_cancer(self,drug_cell_df):
print("#" * 50)
cancer_num = drug_cell_df['TCGA_DESC'].value_counts().shape[0]
print('#\t 癌症类型一共有:{}'.format(cancer_num))
min_cancer_drug = min(drug_cell_df['TCGA_DESC'].value_counts())
max_cancer_drug = max(drug_cell_df['TCGA_DESC'].value_counts())
mean_cancer_drug = np.mean(drug_cell_df['TCGA_DESC'].value_counts())
print('#\t 其中最少的癌症类型对应{}个药物,\n\t 最多的对应{}个药物,\n\t 平均对应{}个药物'.format(
min_cancer_drug, max_cancer_drug, mean_cancer_drug))
def _stat_cell(self, drug_cell_df):
print("#" * 50)
cell_num = drug_cell_df['COSMIC_ID'].value_counts().shape[0]
print('#\t 使用的细胞系有:{}'.format(cell_num))
min_drug = min(drug_cell_df['COSMIC_ID'].value_counts())
max_drug = max(drug_cell_df['COSMIC_ID'].value_counts())
mean_drug = np.mean(drug_cell_df['COSMIC_ID'].value_counts())
print('#\t 其中最少的细胞系对应{}个药物,\n\t 最多的对应{}个药物,\n\t 平均对应{}个药物'.format(
min_drug, max_drug, mean_drug))
def _stat_drug(self, drug_cell_df):
print("#" * 50)
drug_num = drug_cell_df['DRUG_ID'].value_counts().shape[0]
print('#\t 使用的药物有:{}'.format(drug_num))
min_cell = min(drug_cell_df['DRUG_ID'].value_counts())
max_cell = max(drug_cell_df['DRUG_ID'].value_counts())
mean_cell = np.mean(drug_cell_df['DRUG_ID'].value_counts())
print('#\t 其中最少的药物对应{}个细胞系,\n\t 最多的对应{}个细胞系,\n\t 平均对应{}个细胞系'.format(
min_cell, max_cell, mean_cell))
def _split(self,df,col,ratio,random_seed):
col_list = df[col].value_counts().index
train_data = pd.DataFrame()
test_data = pd.DataFrame()
for instatnce in col_list:
sub_df = df[df[col] == instatnce]
sub_df = sub_df[['DRUG_ID', 'COSMIC_ID','TCGA_DESC', 'LN_IC50']]
## 按照 col 来拆分数据集 ##
## 对于任意一个 instance,1 - ratio 的用于训练,10=test,10=validation
sub_train, sub_test = train_test_split(sub_df, test_size=ratio,random_state=random_seed)
if train_data.shape[0] == 0:
train_data = sub_train
test_data = sub_test
else:
train_data = train_data.append(sub_train)
test_data = test_data.append(sub_test)
print('#' * 50)
print('#\t 数据对一共有:{}'.format(df.shape[0]))
print('#\t 按照{}对数据进行切割,对于每个instance,{}的数据进行训练,{}的数据进行验证'.format(col,(1-ratio),ratio))
print('#\t 训练数据有:{}'.format(train_data.shape[0]))
print('#\t 测试数据有:{}'.format(test_data.shape[0]))
return train_data,test_data
def ByCancer(self,random_seed):
# 理解作者的意思就是按照 癌症类型,随机选95的作为训练
# 评价没有癌症的准确性,评价不同药物的准确性
drug_cell_df = pd.read_excel(self.pairfile)
self._stat_drug(drug_cell_df)
self._stat_cell(drug_cell_df)
self._stat_cancer(drug_cell_df)
drug_cell_df = self._filter_pair(drug_cell_df)
drug_cell_df = drug_cell_df.head(10000)
self._stat_drug(drug_cell_df)
self._stat_cell(drug_cell_df)
self._stat_cancer(drug_cell_df)
print(drug_cell_df['TCGA_DESC'].value_counts())
train_data, test_data = self._split(df=drug_cell_df, col='TCGA_DESC',
ratio=0.2,random_seed=random_seed)
return train_data, test_data
def ByDrug(self):
drug_cell_df = pd.read_excel(self.pairfile)
self._stat_drug(drug_cell_df)
self._stat_cell(drug_cell_df)
self._stat_cancer(drug_cell_df)
drug_cell_df = self._filter_pair(drug_cell_df)
self._stat_drug(drug_cell_df)
self._stat_cell(drug_cell_df)
self._stat_cancer(drug_cell_df)
train_data,test_data = self._split(df=drug_cell_df,col='DRUG_ID',ratio=0.2)
return train_data,test_data
def ByCell(self):
drug_cell_df = pd.read_excel(self.pairfile)
self._stat_drug(drug_cell_df)
self._stat_cell(drug_cell_df)
self._stat_cancer(drug_cell_df)
drug_cell_df = self._filter_pair(drug_cell_df)
self._stat_drug(drug_cell_df)
self._stat_cell(drug_cell_df)
self._stat_cancer(drug_cell_df)
train_data, test_data = self._split(df=drug_cell_df, col='COSMIC_ID', ratio=0.2)
return train_data, test_data
def MissingData(self):
drug_cell_df = pd.read_excel(self.pairfile)
self._stat_drug(drug_cell_df)
self._stat_cell(drug_cell_df)
self._stat_cancer(drug_cell_df)
drug_cell_df = self._filter_pair(drug_cell_df)
self._stat_drug(drug_cell_df)
self._stat_cell(drug_cell_df)
self._stat_cancer(drug_cell_df)
cell_list = drug_cell_df['COSMIC_ID'].value_counts().index
drug_list = drug_cell_df['DRUG_ID'].value_counts().index
all_df = pd.DataFrame()
dup_drug = []
[dup_drug.extend([i]*len(cell_list)) for i in drug_list]
all_df['DRUG_ID'] = dup_drug
dup_cell = []
for i in range(len(drug_list)):
dup_cell.extend(cell_list)
all_df['COSMIC_ID'] = dup_cell
all_df['ID'] = all_df['DRUG_ID'].astype(str).str.cat(all_df['COSMIC_ID'].astype(str),sep='_')
drug_cell_df['ID'] = drug_cell_df['DRUG_ID'].astype(str).str.cat(drug_cell_df['COSMIC_ID'].astype(str),sep='_')
MissingData = all_df[~all_df['ID'].isin(drug_cell_df['ID'])]
print("#"*50)
print('使用药物{}个,细胞系有{}个'.format(len(drug_list),len(cell_list)))
print('理论上,每种药物都作用所有细胞系的话,应该有{} Pairs'.format(len(drug_list)*len(cell_list)))
print('但是有的药物和细胞系没有做实验,共有{} Pairs'.format(MissingData.shape[0]))
# drug_cell_df = drug_cell_df[['COSMIC_ID', 'TCGA_DESC']].drop_duplicates()
# cell2cancer_dict = pd.Series(list(drug_cell_df['TCGA_DESC']), index=drug_cell_df['COSMIC_ID'])
return drug_cell_df,MissingData
def _LeaveOut(self,df,col,ratio=0.8,random_num=1):
random.seed(random_num)
col_list = list(set(df[col]))
col_list = list(col_list)
sub_start = int(len(col_list)/5)*random_num
if random_num==4:
sub_end = len(col_list)
else:
sub_end = int(len(col_list)/5)*(random_num+1)
# leave_instatnce = random.sample(col_list,int(len(col_list)*ratio))
leave_instatnce = list(set(col_list)- set(col_list[sub_start:sub_end]))
df = df[['DRUG_ID', 'COSMIC_ID', 'TCGA_DESC', 'LN_IC50']]
train_data = df[df[col].isin(leave_instatnce)]
test_data = df[~df[col].isin(leave_instatnce)]
print('#' * 50)
print(len(col_list))
print(len(set(list(train_data[col]))))
print(len(set(list(test_data[col]))))
print('#\t 数据对一共有:{},leave out 方法'.format(df.shape[0]))
print('#\t 按照{}对数据进行划分,对于每个instance,{}的数据进行训练'.format(col, ratio))
print('#\t 训练数据有:{}'.format(train_data.shape[0]))
print('#\t 测试数据有:{}'.format(test_data.shape[0]))
return train_data,test_data
def Cell_LeaveOut(self,random):
drug_cell_df = pd.read_excel(self.pairfile)
self._stat_drug(drug_cell_df)
self._stat_cell(drug_cell_df)
self._stat_cancer(drug_cell_df)
drug_cell_df = self._filter_pair(drug_cell_df)
self._stat_drug(drug_cell_df)
self._stat_cell(drug_cell_df)
self._stat_cancer(drug_cell_df)
traindata,testdata = self._LeaveOut(df=drug_cell_df,col='COSMIC_ID',ratio=0.8,random_num=random)
return traindata,testdata
def Drug_LeaveOut(self,random):
drug_cell_df = pd.read_excel(self.pairfile)
self._stat_drug(drug_cell_df)
self._stat_cell(drug_cell_df)
self._stat_cancer(drug_cell_df)
drug_cell_df = self._filter_pair(drug_cell_df)
self._stat_drug(drug_cell_df)
self._stat_cell(drug_cell_df)
self._stat_cancer(drug_cell_df)
traindata, testdata = self._LeaveOut(df=drug_cell_df, col='DRUG_ID', ratio=0.8,random_num=random)
return traindata, testdata
def Drug_Thred(self):
thred_data = pd.read_csv(self.drug_thred,sep='\t')
thred_df = thred_data.T
thred_df['drug_name'] =thred_df.index
thred_df['threds'] = thred_df[0]
thred_df = thred_df.drop(0,axis=1)
thred_df.loc['VX-680','drug_name'] = 'Tozasertib'
thred_df.loc['Mitomycin C','drug_name'] = 'Mitomycin-C'
thred_df.loc['HG-6-64-1', 'drug_name'] = 'HG6-64-1'
thred_df.loc['BAY 61-3606', 'drug_name'] = 'BAY-61-3606'
thred_df.loc['Zibotentan, ZD4054', 'drug_name'] = 'Zibotentan'
thred_df.loc['PXD101, Belinostat', 'drug_name'] = 'Belinostat'
thred_df.loc['NU-7441', 'drug_name'] = 'NU7441'
thred_df.loc['BIRB 0796', 'drug_name'] = 'BIRB-796'
thred_df.loc['Nutlin-3a', 'drug_name'] = 'Nutlin-3a (-)'
thred_df.loc['AZD6482.1', 'drug_name'] = 'AZD6482'
thred_df.loc['BMS-708163.1', 'drug_name'] = 'BMS-708163'
thred_df.loc['BMS-536924.1', 'drug_name'] = 'BMS-536924'
thred_df.loc['GSK269962A.1', 'drug_name'] = 'GSK269962A'
thred_df.loc['SB-505124', 'drug_name'] = 'SB505124'
thred_df.loc['JQ1.1', 'drug_name'] = 'JQ1'
thred_df.loc['UNC0638.1', 'drug_name'] = 'UNC0638'
thred_df.loc['CHIR-99021.1', 'drug_name'] = 'CHIR-99021'
thred_df.loc['piperlongumine', 'drug_name'] = 'Piperlongumine'
thred_df.loc['PLX4720 (rescreen)', 'drug_name'] = 'PLX4720'
thred_df.loc['Afatinib (rescreen)', 'drug_name'] = 'Afatinib'
thred_df.loc['Olaparib.1', 'drug_name'] = 'Olaparib'
thred_df.loc['AZD6244.1', 'drug_name'] = 'AZD6244'
thred_df.loc['Bicalutamide.1', 'drug_name'] = 'Bicalutamide'
thred_df.loc['RDEA119 (rescreen)', 'drug_name'] = 'RDEA119'
thred_df.loc['GDC0941 (rescreen)', 'drug_name'] = 'GDC0941'
thred_df.loc['MLN4924 ', 'drug_name'] = 'MLN4924'
# only one I-BET 151
drug_info = pd.read_csv(self.drugfile)
drugname2drugid = {}
drugid2pubchemid = {}
for idx,row in drug_info.iterrows():
name = row['Name']
drug_id = row['drug_id']
pub_id = row['PubCHEM']
drugname2drugid[name] = drug_id
drugid2pubchemid[drug_id] = pub_id
drug_info_filter_name = drug_info.dropna(subset=['Synonyms'])
for idx,row in drug_info_filter_name.iterrows():
name = row['Name']
pub_id = row['PubCHEM']
drug_id = row['drug_id']
drugname2drugid[name] = drug_id
Synonyms_list = row['Synonyms'].split(', ')
for drug in Synonyms_list:
drugname2drugid[drug] = drug_id
drugid2thred = {}
for idx,row in thred_df.iterrows():
name = row['drug_name']
thred = row['threds']
if name in drugname2drugid:
drugid2thred[drugname2drugid[name]] = thred
id_li = []
PubChem_li =[]
thred_li =[]
for i in drugid2thred:
id_li.append(i)
PubChem_li.append(drugid2pubchemid[i])
thred_li.append(drugid2thred[i])
# data = pd.DataFrame()
# data['Drug_id'] = id_li
# data['PubChem'] = PubChem_li
# data['Thred'] = thred_li
#
# print(data)
# data.to_csv('Drug_Thred.csv')
drug_list = [drugname2drugid[i] for i in list(thred_df['drug_name']) if i in drugname2drugid]
return drug_list,drugid2thred
def _split_no_balance_binary(self,df,col,ratio,random_seed):
col_list = df[col].value_counts().index
train_data = pd.DataFrame()
test_data = pd.DataFrame()
for instatnce in col_list:
sub_df = df[df[col] == instatnce]
sub_df = sub_df[['DRUG_ID', 'COSMIC_ID','TCGA_DESC', 'LN_IC50','Binary_IC50']]
## 按照 col 来拆分数据集 ##
## 对于任意一个 instance,1 - ratio 的用于训练,10=test,10=validation
sub_train, sub_test = train_test_split(sub_df, test_size=ratio,
random_state=random_seed)
if train_data.shape[0] == 0:
train_data = sub_train
test_data = sub_test
else:
train_data = train_data.append(sub_train)
test_data = test_data.append(sub_test)
print('#' * 50)
print('#\t 数据对一共有:{}'.format(df.shape[0]))
print('#\t 按照{}对数据进行切割,对于每个instance,{}的数据进行训练,{}的数据进行验证'.format(col,(1-ratio),ratio))
print('#\t 训练数据有:{}'.format(train_data.shape[0]))
print('#\t 测试数据有:{}'.format(test_data.shape[0]))
return train_data,test_data
def _split_balance_binary(self,df,col,ratio,random_seed):
col_list = df[col].value_counts().index
pos_data = df[df[col]==1]
neg_data = df[df[col]==0]
down_pos_data = pos_data.loc[random.sample(list(pos_data.index),neg_data.shape[0])]
combine_data = neg_data.append(down_pos_data)
combine_data = combine_data[['DRUG_ID', 'COSMIC_ID','TCGA_DESC', 'LN_IC50','Binary_IC50']]
train_data, test_data = train_test_split(combine_data, test_size=ratio,
random_state=random_seed)
print('#' * 50)
print('#\t 数据对一共有:{}'.format(df.shape[0]))
print('#\t 构建平衡数据集,{}为大于-2的样本,{}为小于-2的样本,选择1:1的样本各{}个'.format(
pos_data.shape[0],neg_data.shape[0],neg_data.shape[0]))
print('#\t 按照{}对数据进行切割,对于每个instance,{}的数据进行训练,{}的数据进行验证'.format(
col,(1-ratio),ratio))
print('#\t 训练数据有:{}'.format(train_data.shape[0]))
print('#\t 测试数据有:{}'.format(test_data.shape[0]))
return train_data,test_data
def ByBinary(self,random_num):
drug_cell_df = pd.read_excel(self.pairfile)
self._stat_drug(drug_cell_df)
self._stat_cell(drug_cell_df)
self._stat_cancer(drug_cell_df)
drug_cell_df = self._filter_pair(drug_cell_df)
self._stat_drug(drug_cell_df)
self._stat_cell(drug_cell_df)
self._stat_cancer(drug_cell_df)
drug_list, drugid2thred = self.Drug_Thred()
##################################################
# 按照每种药物得阈值,第一种,直接过滤
Binary_Drug_list = []
drug_cell_df = drug_cell_df[drug_cell_df['DRUG_ID'].isin(drug_list)]
# print(drug_cell_df['DRUG_ID'].value_counts().shape)
for idx,row in drug_cell_df.iterrows():
drug_name = row['DRUG_NAME']
drug_id = row['DRUG_ID']
ic50 = row['LN_IC50']
if (ic50 > drugid2thred[drug_id]):
Binary_Drug_list.append(1)
else:
Binary_Drug_list.append(0)
# 数量:2811*2 = Train * 4497 + Test 1125
drug_cell_df['Binary_IC50'] = Binary_Drug_list
############################################################################
# 第二种,补充-2的阈值
# Binary_Drug_list = []
#
# print(drug_cell_df['DRUG_ID'].value_counts().shape)
# for idx, row in drug_cell_df.iterrows():
# drug_name = row['DRUG_NAME']
# drug_id = row['DRUG_ID']
# ic50 = row['LN_IC50']
# if drug_id in drug_list:
# if ic50 > drugid2thred[drug_id]:
# Binary_Drug_list.append(1)
# else:
# Binary_Drug_list.append(0)
# else:
# if ic50 > -2:
# Binary_Drug_list.append(1)
# else:
# Binary_Drug_list.append(0)
# drug_cell_df['Binary_IC50'] = Binary_Drug_list
############################################################################
# 第三种 直接使用-2的阈值
# Binary_IC50_list = []
# for ic50 in drug_cell_df['LN_IC50']:
# if ic50 > -2:
# Binary_IC50_list.append(1)
# else:
# Binary_IC50_list.append(0)
# drug_cell_df['Binary_IC50'] = Binary_IC50_list
# 数量:9102*2 = Train 14571 + Test 3643
#############################################################################
# print(drug_cell_df['Binary_IC50'].value_counts())
train_data, test_data = self._split_balance_binary(df=drug_cell_df, col='Binary_IC50',
ratio=0.2,random_seed=random_num)
print(train_data,test_data)
return train_data,test_data
def getRna(self,traindata,testdata):
train_rnaid = list(traindata['COSMIC_ID'])
test_rnaid = list(testdata['COSMIC_ID'])
train_rnaid = ['DATA.'+str(i) for i in train_rnaid]
test_rnaid = ['DATA.' +str(i) for i in test_rnaid ]
rnadata = pd.read_csv(self.rnafile,sep='\t')
train_rnadata = rnadata[train_rnaid]
test_rnadata = rnadata[test_rnaid]
return train_rnadata,test_rnadata
if __name__ == '__main__':
rnafile ='/home/jlk/Project/023_CancerTrans/GDSC_data/Cell_line_RMA_proc_basalExp.txt'
drugfile = '/home/jlk/Project/023_CancerTrans/smile_inchi.csv'
obj = GetData()