Table 1 Summary of existing studies.
Source | Method | Advantages | Limitations |
---|---|---|---|
Ge11 | Disaster prediction knowledge graph utilizing remote sensing, geographic info, and expert knowledge | Multi-source spatio-temporal information acquisition; efficiency proven in forest fire and landslide studies | Does not consider computational efficiency or scalability in larger-scale disaster situations |
Akbarian et al.12 | Decision Support System (DSS) for flood disaster management, including PCA, KMeans Clustering, and neural networks | Positive correlation between rainfall and flood disasters, good for real-time flood prediction in varying climates | Feasible only where credible data is available; applicability in third-world countries limited |
Jiang et al.14 | Artificial neural network for landslide risk prediction, based on rainfall intensity levels | High accuracy in predicting landslide risks, particularly under varying rainfall intensities | Primarily focuses on rainfall, not accounting for other geographical or human factors |
Raza et al.16 | User-centric communication model for disaster-stricken areas, based on ad hoc clustering | Maximizes throughput and helps restore communication during disasters using social media data | Not tested in large-scale real-world disasters or real-time data conditions |
Luo et al.13 | Multi-sensor information fusion algorithm, combining Kalman joint filters, BP neural networks, and SVMs | Improved prediction accuracy and fault tolerance, real-time decision-making | Real-time data fusion challenges not fully addressed for diverse disaster types |
Keum, Han, and Kim17 | Flood prediction model based on hydraulic theory, machine learning (PNN classifier), and LHS | Real-time flood mapping with high accuracy (85%) and fast runtime (1Â min 12Â s) | Model scalability and applicability to various flood types and cases not fully explored |
Kumar et al.18 | Machine learning techniques (SVM, fine tree classifiers) for flood forecasting | Improves flood forecasting accuracy, reduces computational costs, enhances prediction abilities | Real-time data input could further enhance predictive abilities for disaster response |
Orimoloye19 | Machine learning for drought forecasting, using regression-based algorithms | Effective for mapping drought and forecasting its effects on agriculture | Requires more detailed studies for sub-Saharan Africa, particularly for climatic and anthropogenic characteristics |
Jiang et al.20 | Machine learning models (Random Forest, MLP) for waterlogging disaster prediction | Useful for predicting waterlogging and related disaster losses, accounting for varying rainfall conditions | Can be improved with more specific geographic and temporal data for more accurate locality-based estimates |
Cao21 | AI-driven disaster resilience review, particularly for emergency crises and ECDs (including COVID-19) | AI helps in proactive disaster management and enhances system integration and global scalability for disaster response | High implementation costs and need for specialized skills, limiting widespread adoption |