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Reconstructing missing InSAR data by the application of machine leaning-based prediction models: a case study of Rieti

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Abstract

Remote sensing is undoubtedly one of the most practical approaches used in many fields such as structural health monitoring. The most notable deal of this method, however, is the data which are either missing or not given by satellites. In this study, an attempt has been made to propose machine learning (ML)-based models for reconstructing missing InSAR data (i.e., buildings’ displacement) to monitor their performance more properly. To this end, buildings located in the historical center of Rieti, Rome (Italy), are considered as case studies. Displacement of the points situated on different buildings’ roof, given by remote sensing, is utilized for training the relationship between inputs and outputs to the models. The input variables were points’ coordinates, height, and soil condition, while the cumulative displacement was the target output. Tree-based techniques namely decision tree, random forest and XGBoost were implemented for developing prediction models. The accuracy of the models was assessed through common performance metrics and Taylor diagram, and the most accurate model was introduced accordingly. The results demonstrated high capability of the tree-based methods for estimating the displacement of buildings. The proposed prediction models could be used for either predicting or reconstructing missing displacement of buildings at any specific point which ease structural performance monitoring remarkably.

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Data avilability

Datasets generated during the current study are available from the corresponding author on reasonable request.

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Younsi, S., Dabiri, H., Marini, R. et al. Reconstructing missing InSAR data by the application of machine leaning-based prediction models: a case study of Rieti. J Civil Struct Health Monit 14, 143–161 (2024). https://doi.org/10.1007/s13349-023-00730-4

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