2019· International Journal of Modern Research in Science & Engineering· 0 citations
TL;DR
A flood prediction framework that integrates Geographic Information Systems (GIS) with Machine Learning (ML) and results indicate that hybrid GIS-ML models outperform traditional approaches by effectively capturing non-linear relationships between hydrometeorological and urban factors.
Abstract
Cities flooding is a major hydrological risk in rapidly urbanizing regions, intensified by climate change, extreme rainfall, and inadequate drainage systems. Traditional hydrological models require extensive calibration and high-resolution data, which are often unavailable for many cities. To address this issue, this study proposes a flood prediction framework that integrates Geographic Information Systems (GIS) with Machine Learning (ML). Multi-source geospatial data such as digital elevation models (DEM), land use–land cover (LULC), soil properties, drainage density, rainfall intensity, and historical flood records are used to derive flood conditioning factors in a GIS environment. These factors are then applied as inputs for supervised ML algorithms including Artificial Neural Networks (ANN), Random Forest (RF), Support Vector Machine (SVM), and Gradient Boosting. Model performance is evaluated using RMSE, MAE, R², and ROC–AUC metrics. Results indicate that hybrid GIS-ML models outperform traditional approaches by effectively capturing non-linear relationships between hydrometeorological and urban factors. The framework provides a reliable decision-support tool for urban planners and disaster management authorities to identify flood-prone areas, improve drainage planning, and enhance early warning systems.
Flood occurrence in tropical regions is intensifying due to climate variability and land-use change, increasing the need for reliable flood response time estimation. Accurate prediction of flood lag time (TL)—the interval between the centroid of excess rainfall and peak runoff—is critical for flood early warning and wa...
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Urban flooding has become a growing concern due to rapid land development and increasingly unpredictable climate patterns. Effective emergency response—particularly the strategic placement of temporary shelters—is crucial for minimizing the impacts of disasters. This study presents a data-driven framework for identifyi...
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The southern part of India, Kochi, is more vulnerable to flooding due to changing weather patterns, low-lying terrain, and fast urban growth. In this research, the likelihood of a flood occurrence using GIS and a hybrid forecasting approach that combines AHP and ANN were evaluated. Elevation, slope, stream density, Lan...
Ankita Saxena, Yogesh M. Keskar, P. Raju et al.· International Journal of Civ...· 0 citations
Floods represent a major hazard in India’s sub-Himalayan regions, with recurrent events in Tripura causing significant socio-economic and infrastructural losses. The August 2024 flood in Gomati district highlighted the urgent need for accurate flood susceptibility mapping to guide risk mitigation and disaster preparedn...
Sah Kausar Reza, J. Chakraborty, S. Chattaraj et al.· Discover Environment· 0 citations
An integrated framework combining remote sensing, GIS, and machine learning for flood risk mapping and forecasting using multi‐source geospatial data and meteorological data is developed and validated, providing a replicable, data‐driven methodology for flood risk assessment in data‐scarce regions globally.
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