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dataset.py
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from collections import OrderedDict
from sklearn import preprocessing
from utils import seed_everything
import obonet
import pandas as pd
import json
import pickle
import torch
import numpy as np
import hypernetx as hnx
import numpy as np
import math
import time
class Dataset:
def __init__(
self,
go=True,
hpo=True,
do=True,
gg=True,
dg=True,
seed=0
):
seed_everything(seed)
self.go = go
self.do = do
self.hpo = hpo
self.gg = gg
self.dg = dg
print('- load datasets', end = '\t')
start = time.time()
self.load_dataset()
end = time.time()
print(f"{end - start:.5f} sec")
print('- load the information of unique set', end = '\t')
start = time.time()
self.load_unique_info()
end = time.time()
print(f"{end - start:.5f} sec")
print('-- generate the gene index rule', end = '\t')
start = time.time()
self.GF_indexrule()
end = time.time()
print(f"{end - start:.5f} sec")
print('-- generate the disease index rule', end = '\t')
start = time.time()
self.DF_indexrule()
end = time.time()
print(f"{end - start:.5f} sec")
print('--- Construct the hypergraph for gene', end = '\t')
start = time.time()
self.construct_hypergraph_g()
end = time.time()
print(f"{end - start:.5f} sec")
print('--- Construct the hypergraph for disease', end = '\t')
start = time.time()
self.construct_hypergraph_d()
end = time.time()
print(f"{end - start:.5f} sec")
print('---- Set the labels', end = '\t')
start = time.time()
self.set_tbga()
end = time.time()
print(f"{end - start:.5f} sec")
def load_dataset(self):
# Dataset load
with open("./datasets/datasets.pkl", "rb") as f:
loaded_tensor = pickle.load(f)
self.df_tbga = loaded_tensor['tbga']
self.gene_gene_adj = loaded_tensor['gene_gene']
self.gene_go_adj = loaded_tensor['gene_go']
self.dis_hpo_adj = loaded_tensor['disease_hpo']
self.dis_do_adj = loaded_tensor['disease_do']
def load_unique_info(self):
# Unique node set load
with open("./datasets/unique_node_sets.pkl", "rb") as f:
loaded_tensor = pickle.load(f)
self.unique_genes_set = loaded_tensor['unique_genes_set']
self.unique_go_set = loaded_tensor['unique_go_set']
self.unique_disease_set = loaded_tensor['unique_disease_set']
self.unique_hpo_set = loaded_tensor['unique_hpo_set']
self.unique_do_set = loaded_tensor['unique_do_set']
def GF_indexrule(self):
self.unique_genes_list = list(self.unique_genes_set)
self.unique_genes_list.sort()
geneid_to_index_rule = OrderedDict((i,idx) for idx, i in enumerate(self.unique_genes_list))
if self.go:
self.unique_go_list = list(self.unique_go_set)
self.unique_go_list.sort()
goid_to_index_rule = OrderedDict((i,idx+21630) for idx, i in enumerate(self.unique_go_list))
else:
goid_to_index_rule = None
self.geneid_to_index_rule = geneid_to_index_rule
self.goid_to_index_rule = goid_to_index_rule
def DF_indexrule(self):
self.total_diseaseid_list = list(self.unique_disease_set)
self.total_diseaseid_list.sort()
diseaseid_to_index_rule = OrderedDict((i,idx+35834) for idx, i in enumerate(self.total_diseaseid_list))
if self.hpo:
self.unique_hpo_list = list(self.unique_hpo_set)
self.unique_hpo_list.sort()
hpoid_to_index_rule = OrderedDict((i,idx+49238) for idx, i in enumerate(self.unique_hpo_list))
else:
hpoid_to_index_rule = None
if self.do:
self.unique_do_list = list(self.unique_do_set)
self.unique_do_list.sort()
doid_to_index_rule = OrderedDict((i,idx+55778) for idx, i in enumerate(self.unique_do_list))
else:
doid_to_index_rule = None
self.diseaseid_to_index_rule = diseaseid_to_index_rule
self.hpoid_to_index_rule = hpoid_to_index_rule
self.doid_to_index_rule = doid_to_index_rule
def construct_hypergraph_g(self):
self.all_genes = set(self.geneid_to_index_rule.values())
# go_list = list(self.goid_to_index_rule.values())
self.gene_gene_adj.iloc[:,0] = [self.geneid_to_index_rule[i] for i in self.gene_gene_adj.iloc[:,0].values]
self.gene_gene_adj.iloc[:,1] = [self.geneid_to_index_rule[i] for i in self.gene_gene_adj.iloc[:,1].values]
self.generate_hg_gg()
gene_gene = np.array(self.gene_gene_adj).T
# self.geneid_set = set(gene_gene[0]).union(set(gene_gene[1]))
self.geneid_set = set(gene_gene[1])
if self.go:
self.gene_go_adj.iloc[:,0] = [self.geneid_to_index_rule[i] for i in self.gene_go_adj.iloc[:,0].values]
self.gene_go_adj.iloc[:,1] = [self.goid_to_index_rule[i] for i in self.gene_go_adj.iloc[:,1].values]
self.generate_hg_go()
go = np.array(self.gene_go_adj).T
gene_go_list = list(set(go[0]))
self.geneid_set = set(gene_go_list).union(set(gene_gene[1]))
self.geneid_list = list(self.geneid_set)
self.df_tbga.iloc[:,1] = [self.geneid_to_index_rule[i] for i in self.df_tbga.iloc[:,1].values]
self.integrated_genes_hyperedge_list = list(self.hyperedges_gene_gene.keys())
gene_integrated = hnx.Hypergraph(self.hyperedges_gene_gene)
self.gene_integrated_incidence = gene_integrated.incidence_matrix()
self.gene_incidence_matrix = self.gene_integrated_incidence.toarray()
def generate_hg_gg(self):
gene_gene = np.array(self.gene_gene_adj).T
neighbors = {node : set() for node in np.unique(gene_gene[0])}
for node1, node2 in gene_gene.T :
neighbors[node1].add(node2)
self.hyperedges_gene_gene = {node:neighbors[node] for node in neighbors}
def generate_hg_go(self):
# Gene-GO incidence matrix generation
go = np.array(self.gene_go_adj).T
neighbors = {node : set() for node in np.unique(go[1])}
for node1, node2 in go.T :
neighbors[node2].add(node1)
hyperedges_geneGO = {node : neighbors[node] for node in neighbors}
self.hyperedges_gene_gene.update(hyperedges_geneGO)
def construct_hypergraph_d(self):
self.all_diseases = set(self.diseaseid_to_index_rule.values())
self.df_tbga.iloc[:,2] = [self.diseaseid_to_index_rule[i] for i in self.df_tbga.iloc[:,2].values]
self.generate_hg_tbga()
self.diseaseid_set = set(self.df_tbga_gene_dis_array[1])
if self.hpo:
self.dis_hpo_adj.iloc[:,0] = [self.diseaseid_to_index_rule[i] for i in self.dis_hpo_adj.iloc[:,0].values]
self.dis_hpo_adj.iloc[:,1] = [self.hpoid_to_index_rule[i] for i in self.dis_hpo_adj.iloc[:,1].values]
self.generate_hg_hpo()
self.diseaseid_set = self.diseaseid_set.union(set(self.dis_hpo_adj.iloc[:, 0].values))
if self.do:
self.dis_do_adj.iloc[:,0] = [self.diseaseid_to_index_rule[x] for x in self.dis_do_adj.iloc[:,0].values]
self.dis_do_adj.iloc[:,1] = [self.doid_to_index_rule[x] for x in self.dis_do_adj.iloc[:,1].values]
self.generate_hg_do()
self.diseaseid_set = self.diseaseid_set.union(set(self.dis_do_adj.iloc[:, 0].values))
disease_integrated = hnx.Hypergraph(self.hyperedges_tbga)
self.disease_integrated_incidence = disease_integrated.incidence_matrix()
# integrated disease flow incidence matrix
self.disease_integrated_incidence_matrix = self.disease_integrated_incidence.toarray()
# disease-hpo, do, gene에서 사용한 전체 hpo, do, gene 인덱스 리스트
self.hpo_do_gene_all_keys = list(set(self.hyperedges_tbga.keys()))
# hpo do gene hypergraph 안에 사용된 disease id들
self.diseaseid_list = list(self.diseaseid_set)
def generate_hg_tbga(self):
# TBGA Gene-Disease incidence matrix generation
self.df_tbga_gene_dis_array = np.array(self.df_tbga[self.df_tbga.iloc[:,0] != 'NA'].iloc[:,[1,2]]).T
neighbors = {node : set() for node in np.unique(self.df_tbga_gene_dis_array[0])}
for node1, node2 in self.df_tbga_gene_dis_array.T :
neighbors[node1].add(node2)
self.hyperedges_tbga = {node : neighbors[node] for node in neighbors}
def generate_hg_hpo(self):
# Disease-HPO incidence matrix generation
disease_hpo = np.array(self.dis_hpo_adj).T
neighbors = {node : set() for node in np.unique(disease_hpo[1])}
for node1, node2 in disease_hpo.T :
neighbors[node2].add(node1)
hyperedges_diseaseHPO = {node:neighbors[node] for node in neighbors}
self.hyperedges_tbga.update(hyperedges_diseaseHPO)
def generate_hg_do(self):
# Disease-HPO incidence matrix generation
disease_do = np.array(self.dis_do_adj).T
neighbors = {node : set() for node in np.unique(disease_do[1])}
for node1, node2 in disease_do.T :
neighbors[node2].add(node1)
hyperedges_diseaseDO = {node:neighbors[node] for node in neighbors}
self.hyperedges_tbga.update(hyperedges_diseaseDO)
def set_tbga(self):
self.df_tbga['relation'] = self.df_tbga['relation'].map({'NA':0, 'biomarker':1, 'genomic_alterations':1, 'therapeutic':2})
self.df_tbga = self.df_tbga.rename(columns={'relation':'relation', 'geneid':'geneId', 'diseaseid': 'diseaseId'})
self.label = self.df_tbga[['geneId', 'diseaseId', 'relation']]
self.label = self.label.values
def get_data_inits(self):
self.integrated_genes_hyperedge_list.sort()
self.geneid_list.sort()
self.hpo_do_gene_all_keys.sort()
self.diseaseid_list.sort()
return {
'all_genes' : self.all_genes,
'all_diseases' : self.all_diseases,
'integrated_gene_go_hyperedge_list' : self.integrated_genes_hyperedge_list,
'integrated_gene_go_node_list' : self.geneid_list,
'hpo_do_gene_all_keys' : self.hpo_do_gene_all_keys,
'diseaseid_list_in_hpodogene' : self.diseaseid_list,
}
def get_data_forwards(self):
return {
'gene_total_incidence_matrix' : torch.tensor(self.gene_incidence_matrix),
'disease_integrated_incidence' : torch.tensor(self.disease_integrated_incidence_matrix)
}