Alakus and Turkoglu [67] |
Normalizing and classifying the mapped protein sequences using the DeepBiRNN model. |
−97.76% accuracy, 97.60% precision, 98.33% recall, 79.42% f1-score, and an overall AUC of 89%. |
-There has been no comparison with the modern approaches. |
No |
NCBI dataset |
No |
RNN + AVL tree |
Protein interactions in COVID-19 disease prediction |
-Stable and robust |
ArunKumar, Kalaga [68] |
Using RNN and GRUs, predict future patterns in cumulative reported cases, cumulative recovered cases, and cumulative fatalities in the top 10 countries. |
-High accuracy |
-High energy consumption |
No |
Datasets from John Hopkin's university are publicly accessible |
No |
RNN + GRU |
Forecasting cumulative reported cases, cumulative recovered cases, and cumulative fatalities by region |
-Great analysis of results. |
-High delay |
Kumari and Sood [69] |
Using RNN to construct a prediction model. |
-A 98% overall accuracy
|
-There has been no comparison with the modern approaches. |
No |
Kaggle dataset |
No |
Simple RNN |
Forecasting future, fatalities, and recovered cases patterns |
-Low system complexity |
Li, Jia [70] |
Using attention-based RNN architecture to predict the epidemic trends for different countries. |
-High accuracy |
-High delay |
No |
The dataset includes daily, the lockdown history, and populations from 83 |
Yes |
Attention-based RNN |
Forecast epidemic patterns in various countries |
-Useful tool for predicting the need for a county-wide lockdown. |
-The number of cases recovered, deaths, and available healthcare services are not taken into account. |
-High scalability |
|
-Large dataset used. |
|
Shastri, Singh [71] |
Using RNN-based LSTM variants, propose a technique for forecasting Covid-19 cases for one month ahead. |
-High accuracy |
-High complexity |
No |
Dataset from the India and USA Department of Health. |
No |
RNN |
Covid-19 forecasting for India and USA |
-High predictability |
-High delay |
|
-High energy consumption |