Table 6.
Authors | The basic objective | Pros | Limitations in study | Security method? | Simulation environments | Dataset and Size of Dataset | Using TL? | Mechanism | Application? |
---|---|---|---|---|---|---|---|---|---|
Zhan, Zheng [98] | Proposing an ML model for COVID-19 prediction based on a large learning system |
-High predictability -High accuracy |
- | No | Not mentioned | Dataset from reports made available by national health authorities and the Bureau of statistics (Large dataset) | No | The RF-bagging broad learning system | Prediction |
Zhan, Zheng [99] | Proposing a simulated annealing method that is pseudocoevolutionary |
-High robustness -High predictability |
-Moderate complexity | No | Not mentioned |
Real-world records (Large dataset) |
No | Simulated annealing | Prediction |
Absar, Uddin [100] | Using LSTM to Predict the spread of the epidemic | -High accuracy | -Low flexibility | No | Python- Keras |
eHealth division of the government of the Republic of Bangladesh dataset (Small dataset) |
No | LSTM | Forecasting pandemic cases |
Chiu, Hwang [101] | Determining the axial dependence of the slices using LSTM | -High sensitivity |
-Low scalability -A single dataset was used to obtain experimental data |
No | Python |
NHIRD database (Small dataset) |
No | Decision Tree and DNN | Assess the probability of serious disease or death in hospitalized patients |
Asgharnezhad, Shamsi [102] | Using CXR images to apply three uncertainty quantification approaches | -High sensitivity and specificity | -Low robustness | No | Python |
CXR image database (Small dataset) |
No | Ensemble Bayesian networks | COVID-19 detection uncertainty predictions |