TY - JOUR
T1 - DeCoP
T2 - deep learning for COVID-19 prediction of survival
AU - Deng, Yao
AU - Liu, Shigang
AU - Jolfaei, Alireza
AU - Cheng, Hongbing
AU - Wang, Ziyuan
AU - Zheng, Xi
PY - 2022/12
Y1 - 2022/12
N2 - The current ongoing COVID-19 pandemic caused by the SARS-CoV-2 virus,
has severely affected our daily life routines and behavior patterns.
According to the World Health Organization, there have been 93 million
confirmed cases with more than 1.99 million confirmed death around 235
Countries, areas or territories until 15 January 2021, 11:00 GMT+11.
People who are affected with COVID-19 have different symptoms from
people to people. When large amounts of patients are affected with
COVID-19, it is important to quickly identify the health conditions of
patients based on the basic information and symptoms of patients. Then
the hospital can arrange reasonable medical resources for different
patients. However, existing work has a low recall of 15.7% for survival
predictions based on the basic information of patients (i.e., false
positive rate (FPR) with 84.3%, FPR: actually survival but predicted as
died). There is much room for improvement when using machine
learning-based techniques for COVID-19 prediction. In this paper, we
propose DeCoP to train a classifier to predict the survival of COVID-19
patients with high recall and F1 score. DeCoP is a deep learning
(DL)-based scheme of Bidirectional Long Short-Term Memory (BiLSTM) along
with Fuzzy-based Information Decomposition (FID) to predict the
survival of patients. First of all, we apply FID oversampling to
redistribute the training data of the Open COVID-19 Data Working Group.
Then, we employ BiLSTM to learn the high-level feature representations
from the redistributed dataset. After that, the high-level feature
vector will be used to train the prediction model. Experimental results
show that our proposed scheme achieves outstanding performances.
Precisely, the improvement achieves about 19% and 18% in terms of recall
and F1-measure.
AB - The current ongoing COVID-19 pandemic caused by the SARS-CoV-2 virus,
has severely affected our daily life routines and behavior patterns.
According to the World Health Organization, there have been 93 million
confirmed cases with more than 1.99 million confirmed death around 235
Countries, areas or territories until 15 January 2021, 11:00 GMT+11.
People who are affected with COVID-19 have different symptoms from
people to people. When large amounts of patients are affected with
COVID-19, it is important to quickly identify the health conditions of
patients based on the basic information and symptoms of patients. Then
the hospital can arrange reasonable medical resources for different
patients. However, existing work has a low recall of 15.7% for survival
predictions based on the basic information of patients (i.e., false
positive rate (FPR) with 84.3%, FPR: actually survival but predicted as
died). There is much room for improvement when using machine
learning-based techniques for COVID-19 prediction. In this paper, we
propose DeCoP to train a classifier to predict the survival of COVID-19
patients with high recall and F1 score. DeCoP is a deep learning
(DL)-based scheme of Bidirectional Long Short-Term Memory (BiLSTM) along
with Fuzzy-based Information Decomposition (FID) to predict the
survival of patients. First of all, we apply FID oversampling to
redistribute the training data of the Open COVID-19 Data Working Group.
Then, we employ BiLSTM to learn the high-level feature representations
from the redistributed dataset. After that, the high-level feature
vector will be used to train the prediction model. Experimental results
show that our proposed scheme achieves outstanding performances.
Precisely, the improvement achieves about 19% and 18% in terms of recall
and F1-measure.
UR - http://www.scopus.com/inward/record.url?scp=85131752480&partnerID=8YFLogxK
U2 - 10.1109/TMBMC.2022.3181514
DO - 10.1109/TMBMC.2022.3181514
M3 - Article
AN - SCOPUS:85131752480
SN - 2332-7804
VL - 8
SP - 239
EP - 248
JO - IEEE Transactions on Molecular, Biological, and Multi-Scale Communications
JF - IEEE Transactions on Molecular, Biological, and Multi-Scale Communications
IS - 4
ER -