1 |
Patch-based DL approach14–17
|
Improved classification and segmentation accuracy |
High accuracy and precision across datasets |
Computational complexity, need for extensive labeled data |
2 |
COVID-19 detection models21,33
|
High accuracy in detecting and segmenting COVID-19 infections |
Advanced techniques like STM blocks and FME |
Limited labeled data, high computational complexity |
3 |
Graph-based and transfer learning models19,20
|
Effective COVID-19 detection and prediction |
Utilizes GIN and transfer learning models |
Dependence on large datasets for training |
4 |
Capsule networks8,22
|
Superior performance with small datasets |
Better handling of small datasets |
Complex architecture |
5 |
Regional feature-based prediction23
|
Overall accuracy of 91.66% on test data |
Effective use of regional features |
Limited generalizability |
6 |
Deep feature learning with SMOTE28
|
Accurate COVID-19 prediction using CXR images |
Improved accuracy with ResNet152 architecture |
Potential overfitting |
7 |
Ensemble and hybrid learning models30–32,34
|
High performance with web-based interface for rapid detection |
Combines strengths of multiple models |
Substantial computational resources required |
8 |
Severity assessment models35–38
|
Efficient and reliable assessment of COVID-19 severity |
Accurate severity computation |
Complex preprocessing and segmentation steps |