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Early and precise landslide prediction remains a critical challenge for mitigating their devastating impacts. Traditional methods often struggle to integrate both spatial and temporal data effectively, leading to limited prediction accuracy. This study aims to develop a deep learning model that combines Convolutional Autoencoders (CAEs) for spatial feature extraction with Recurrent Neural Networks (RNNs) to capture temporal dynamics.
The proposed model leverages CAEs to learn robust spatial representations from the 14-band Landslide4Sense dataset, while the RNN component captures the temporal patterns crucial for landslide detection. This integrated approach enhances the prediction capability by considering both spatial and temporal factors.
The approach demonstrates an impressive landslide prediction accuracy of 0.988, with performance metrics of precision: 0.987, recall: 0.972, and F1-score: 0.982, highlighting its effectiveness in landslide prediction.
The model successfully integrates spatial and temporal dimensions, outperforming traditional prediction methods. Its deep learning design enhances robustness and adaptability across geospatial terrains.
This work paves the way for the application of advanced deep learning models in real-world landslide prediction. By integrating spatial and temporal data, the model offers a promising solution for mitigating landslide-related risks, potentially saving lives and infrastructure.
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