Melin, Monica [44] |
Utilizing an unsupervised SOM based on clustering can spatially group countries together. |
-High scalability |
-It is not considered to integrate both the spatial and temporal dimensions of the COVID-19 spread problem. |
No |
The Humanitarian Data Exchange was used to collect the dataset. |
No |
SOM |
Analyze the global coronavirus pandemic's spatial evolution |
-High accuracy |
- Low robustness |
|
-Low dependability |
Galvan, Effting [45] |
Using SOM's spatial clustering capability to spatially group related towns, states, and regions based on COVID-19 cases. |
-Able to spatially group cities, states, and regions based on the prevalence of coronavirus |
-Comorbidities, the number of hospital beds available, trained staff, the human development index, and the environment are not considered. |
No |
The Brazilian Ministry of Health dataset on May 31, 2020. |
No |
SOM |
To determine COVID-19's geographic and temporal distribution in Brazil |
-Low complexity |
Simsek and Kantarci [76] |
Proposing a mobile epidemic assessment agent mobilization approach based on AI. |
-The results show that a 5 km coverage restriction achieves 99.783% coverage |
-Dataset is not mentioned. |
No |
Not mentioned |
No |
SOM |
To monitor, model and forecast reported cases |
-High robustness |
-Low dependability |
|
-High energy consumption |
Triayudi [77] |
Using SOM, visualize the relationship between socioeconomic factors and outbreaks. |
-Low response time |
-It is necessary to conduct additional tests to expand the data coverage |
No |
The Indonesian central statistics agency provided the data. |
No |
SOM |
Depicts the connection between socioeconomic factors and the outbreak of the COVID-19 |
-Low energy consumption |
-High complexity |
-High accuracy |
|