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import argparse
import numpy as np
from statics import *
from selection_tools import get_selection_information
import keras
import datetime
import sys
import os
import tensorflow as tf
import keras.backend.tensorflow_backend as K
# Specify that the first GPU is available, if there is no GPU, apply: "-1"
os.environ["CUDA_VISIBLE_DEVICES"] = "0"
config = tf.compat.v1.ConfigProto()
config.gpu_options.allow_growth = True # Do not occupy all of the video memory, allocate on demand
sess = tf.compat.v1.Session(config=config)
K.set_session(sess)
# RQ1: Bug Detection Rate on {10%, 20%, 50%} selected test set.
if __name__ == '__main__':
parse = argparse.ArgumentParser("Calculate the bug detection rate for the selected dataset.")
parse.add_argument('-dl_model', help='path of dl model', required=True)
parse.add_argument('-model_type', required=True, choices=['lstm', 'blstm', 'gru'])
parse.add_argument('-dataset', required=True, choices=['mnist', 'snips', 'fashion', 'agnews'])
args = parse.parse_args()
if args.model_type == "lstm" and args.dataset == "mnist":
time_steps = 28
w2v_path = ""
from RNNModels.mnist_demo.mnist_lstm import MnistLSTMClassifier
lstm_classifier = MnistLSTMClassifier()
model = lstm_classifier.load_hidden_state_model(args.dl_model)
dense_classifier = MnistLSTMClassifier()
dense_model = dense_classifier.reload_dense(args.dl_model)
to_select_path = "./gen_data/mnist_toselect"
wrapper_path = "./RNNModels/mnist_demo/output/lstm/abst_model/wrapper_lstm_mnist_3_10.pkl"
total_num = 6000
elif args.model_type == "blstm" and args.dataset == "mnist":
time_steps = 28
w2v_path = ""
from RNNModels.mnist_demo.mnist_blstm import MnistBLSTMClassifier
lstm_classifier = MnistBLSTMClassifier()
model = lstm_classifier.load_hidden_state_model(args.dl_model)
dense_classifier = MnistBLSTMClassifier()
dense_model = dense_classifier.reload_dense(args.dl_model)
to_select_path = "./gen_data/mnist_toselect"
wrapper_path = "./RNNModels/mnist_demo/output/blstm/abst_model/wrapper_blstm_mnist_3_10.pkl"
total_num = 6000
elif args.model_type == "blstm" and args.dataset == "snips":
time_steps = 16
from RNNModels.snips_demo.snips_blstm import SnipsBLSTMClassifier
lstm_classifier = SnipsBLSTMClassifier()
lstm_classifier.data_path = "./RNNModels/snips_demo/save/standard_data.npz"
lstm_classifier.embedding_path = "./RNNModels/snips_demo/save/embedding_matrix.npy"
model = lstm_classifier.load_hidden_state_model(args.dl_model)
dense_classifier = SnipsBLSTMClassifier()
dense_model = dense_classifier.reload_dense(args.dl_model)
to_select_path = "./gen_data/snips_toselect"
wrapper_path = "./RNNModels/snips_demo/output/blstm/abst_model/wrapper_blstm_snips_3_10.pkl"
w2v_path = "./RNNModels/snips_demo/save/w2v_model"
total_num = 2000
elif args.model_type == "gru" and args.dataset == "snips":
time_steps = 16
from RNNModels.snips_demo.snips_gru import SnipsGRUClassifier
lstm_classifier = SnipsGRUClassifier()
lstm_classifier.data_path = "./RNNModels/snips_demo/save/standard_data.npz"
lstm_classifier.embedding_path = "./RNNModels/snips_demo/save/embedding_matrix.npy"
model = lstm_classifier.load_hidden_state_model(args.dl_model)
dense_classifier = SnipsGRUClassifier()
dense_model = dense_classifier.reload_dense(args.dl_model)
to_select_path = "./gen_data/snips_toselect"
wrapper_path = "./RNNModels/snips_demo/output/gru/abst_model/wrapper_gru_snips_3_10.pkl"
w2v_path = "./RNNModels/snips_demo/save/w2v_model"
total_num = 2000
elif args.model_type == "lstm" and args.dataset == "fashion":
time_steps = 28
w2v_path = ""
from RNNModels.fashion_demo.fashion_lstm import FashionLSTMClassifier
lstm_classifier = FashionLSTMClassifier()
model = lstm_classifier.load_hidden_state_model(args.dl_model)
dense_classifier = FashionLSTMClassifier()
dense_model = dense_classifier.reload_dense(args.dl_model)
to_select_path = "./gen_data/fashion_toselect"
wrapper_path = "./RNNModels/fashion_demo/output/lstm/abst_model/wrapper_lstm_fashion_3_10.pkl"
total_num = 6000
elif args.model_type == "gru" and args.dataset == "fashion":
time_steps = 28
w2v_path = ""
from RNNModels.fashion_demo.fashion_gru import FashionGRUClassifier
lstm_classifier = FashionGRUClassifier()
model = lstm_classifier.load_hidden_state_model(args.dl_model)
dense_classifier = FashionGRUClassifier()
dense_model = dense_classifier.reload_dense(args.dl_model)
to_select_path = "./gen_data/fashion_toselect"
wrapper_path = "./RNNModels/fashion_demo/output/gru/abst_model/wrapper_gru_fashion_3_10.pkl"
total_num = 6000
elif args.model_type == "lstm" and args.dataset == "agnews":
time_steps = 35
from RNNModels.agnews_demo.agnews_lstm import AGNewsLSTMClassifier
lstm_classifier = AGNewsLSTMClassifier()
lstm_classifier.data_path = "./RNNModels/agnews_demo/save/standard_data.npz"
lstm_classifier.embedding_path = "./RNNModels/agnews_demo/save/embedding_matrix.npy"
model = lstm_classifier.load_hidden_state_model(args.dl_model)
dense_classifier = AGNewsLSTMClassifier()
dense_model = dense_classifier.reload_dense(args.dl_model)
w2v_path = "./RNNModels/agnews_demo/save/w2v_model"
to_select_path = "./gen_data/agnews_toselect"
wrapper_path = "./RNNModels/agnews_demo/output/lstm/abst_model/wrapper_lstm_agnews_3_10.pkl"
total_num = 4560
elif args.model_type == "blstm" and args.dataset == "agnews":
time_steps = 35
from RNNModels.agnews_demo.agnews_blstm import AgnewsBLSTMClassifier
lstm_classifier = AgnewsBLSTMClassifier()
lstm_classifier.data_path = "./RNNModels/agnews_demo/save/standard_data.npz"
lstm_classifier.embedding_path = "./RNNModels/agnews_demo/save/embedding_matrix.npy"
model = lstm_classifier.load_hidden_state_model(args.dl_model)
dense_classifier = AgnewsBLSTMClassifier()
dense_model = dense_classifier.reload_dense(args.dl_model)
w2v_path = "./RNNModels/agnews_demo/save/w2v_model"
to_select_path = "./gen_data/agnews_toselect"
wrapper_path = "./RNNModels/agnews_demo/output/blstm/abst_model/wrapper_blstm_agnews_3_10.pkl"
total_num = 4560
else:
print("The model and data set are incorrect.")
sys.exit(1)
state_w_bdr, ran_bdr, RNNTestcov_bdr, Stellarbscov_bdr, Stellarbtcov_bdr, \
sc_ctm_bdr, sc_cam_bdr, nc_ctm_bdr, nc_cam_bdr = {}, {}, {}, {}, {}, {}, {}, {}, {}
pre_li = [10, 20, 50]
for i in pre_li:
state_w_bdr[i] = []
ran_bdr[i] = []
RNNTestcov_bdr[i] = []
Stellarbscov_bdr[i] = []
Stellarbtcov_bdr[i] = []
sc_ctm_bdr[i] = []
sc_cam_bdr[i] = []
nc_ctm_bdr[i] = []
nc_cam_bdr[i] = []
files = os.listdir(to_select_path)
for file in files:
print("time:", datetime.datetime.now())
print("Processing file:", file)
file_path = to_select_path + "/" + file
weight_state, unique_index_arr_id, stellar_bscov, stellar_btcov, rnntest_sc, nc_cov, nc_cam, \
rnntest_sc_cam, trend_set, right = get_selection_information(file_path, model, lstm_classifier,
dense_model, wrapper_path, w2v_path, time_steps)
for pre in pre_li:
select_num = int(total_num * 0.01 * pre)
# selection
state_w_selected = selection(weight_state, trend_set, select_num)
random_selected = ran_selection(total_num, select_num)
cov_selected = cam_selection(unique_index_arr_id, total_num, select_num)
bscov_selected = ctm_selection(np.array(stellar_bscov), total_num, select_num)
btcov_selected = ctm_selection(np.array(stellar_btcov), total_num, select_num)
sc_ctm_selected = ctm_selection(np.array(rnntest_sc), total_num, select_num)
sc_cam_selected = nc_cam_selection(np.array(rnntest_sc_cam), total_num, select_num)
nc_ctm_selected = ctm_selection(np.array(nc_cov), total_num, select_num)
nc_cam_selected = nc_cam_selection(np.array(nc_cam), total_num, select_num)
state_w_R, state_w_P, _, _, _ = selection_evaluate(right, state_w_selected)
random_R, random_P, _, _, _ = selection_evaluate(right, random_selected)
cov_R, cov_P, _, _, _ = selection_evaluate(right, cov_selected)
bscov_R, bscov_P, _, _, _ = selection_evaluate(right, bscov_selected)
btcov_R, btcov_P, _, _, _ = selection_evaluate(right, btcov_selected)
sc_ctm_R, sc_ctm_P, _, _, _ = selection_evaluate(right, sc_ctm_selected)
sc_cam_R, sc_cam_P, _, _, _ = selection_evaluate(right, sc_cam_selected)
nc_ctm_R, nc_ctm_P, _, _, _ = selection_evaluate(right, nc_ctm_selected)
nc_cam_R, nc_cam_P, _, _, _ = selection_evaluate(right, nc_cam_selected)
state_w_bdr[pre].append(state_w_P)
ran_bdr[pre].append(random_P)
RNNTestcov_bdr[pre].append(cov_P)
Stellarbscov_bdr[pre].append(bscov_P)
Stellarbtcov_bdr[pre].append(btcov_P)
sc_ctm_bdr[pre].append(sc_ctm_P)
sc_cam_bdr[pre].append(sc_cam_P)
nc_ctm_bdr[pre].append(nc_ctm_P)
nc_cam_bdr[pre].append(nc_cam_P)
print(state_w_bdr, ran_bdr, RNNTestcov_bdr, Stellarbscov_bdr, Stellarbtcov_bdr, sc_ctm_bdr)
result_dict = {'state_w10': state_w_bdr[10], 'state_w20': state_w_bdr[20], 'state_w50': state_w_bdr[50],
'random10': ran_bdr[10], 'random20': ran_bdr[20], 'random50': ran_bdr[50],
'RNNTestcov10': RNNTestcov_bdr[10], 'RNNTestcov20': RNNTestcov_bdr[20],
'RNNTestcov50': RNNTestcov_bdr[50],
'Stellarbscov10': Stellarbscov_bdr[10], 'Stellarbscov20': Stellarbscov_bdr[20],
'Stellarbscov50': Stellarbscov_bdr[50],
'Stellarbtcov10': Stellarbtcov_bdr[10], 'Stellarbtcov20': Stellarbtcov_bdr[20],
'Stellarbtcov50': Stellarbtcov_bdr[50],
'testRNNsc10': sc_ctm_bdr[10], 'testRNNsc20': sc_ctm_bdr[20], 'testRNNsc50': sc_ctm_bdr[50],
'testRNNsc_cam10': sc_cam_bdr[10], 'testRNNsc_cam20': sc_cam_bdr[20], 'testRNNsc_cam50': sc_cam_bdr[50],
'nc_ctm10': nc_ctm_bdr[10], 'nc_ctm20': nc_ctm_bdr[20], 'nc_ctm50': nc_ctm_bdr[50],
'nc_cam10': nc_cam_bdr[10], 'nc_cam20': nc_cam_bdr[20], 'nc_cam50': nc_cam_bdr[50]}
print(result_dict)
df = pd.DataFrame(result_dict)
os.makedirs("./exp_results/rq1", exist_ok=True)
df.to_csv("./exp_results/rq1/rq1_{}_{}.csv".format(args.dataset, args.model_type))
print("Finished! The results are saved in: [./exp_results/rq1/rq1_{}_{}.csv]".format(args.dataset, args.model_type))