Back to results
Bibliographic record · Consultation and access
Artículo

A GIS based hybrid AHP and ensemble machine learning framework for identifying groundwater recharge and flood mitigation hotspots

Manvinder Sharma et al · Springer · 2026

Supplementary material available
Quick overview. Review the resource’s basic details, then access the content using the main button. This page shows only the information needed to identify, cite, and open the work.

Resource access

Open the content from the main option or choose another available source.

DOAJ DOAJ Articles
Entrar por DOAJ
Main access

Supplementary material available

El enlace apunta a material asociado, anexos, tablas, datos o página complementaria. No se marca como libro/texto completo.
Open material

Summary

Descripción general del contenido del recurso.

Abstract Globally groundwater depletion threatens water security with aquifer storage declining at 300 km³/year. Climate change intensifies flood frequency and magnitude causing agricultural and other losses. Punjab, India also faces a dual crisis of declining groundwater levels and recurring flood events threatening agricultural sustainability, which contributes 30% of India’s wheat and rice production. The state experiences accelerated aquifer decline from extensive tube well use, while climate change induced extreme precipitation events cause devastating floods witnessed in August-September 2025. Traditional approaches treat groundwater recharge and flood control as isolated challenges. This paper presents an integrated framework combining Analytical Hierarchy Process (AHP) with ensemble machine learning to identify optimal groundwater recharge hotspots that serve dual purpose of groundwater recharging and flood control. Random Forest, Gradient Boosting and CART are used for analysis with opensource platform Google Earth Engine. Sentinel-1 SAR flood mapping, GRACE groundwater depletion, soil permeability, rainfall, land use and topography are used for analysis. JRC Global Surface Water occurrence dataset (1984–2023) is used as a proxy for flood proneness, replacing unreliable global flood hazard datasets. The ensemble model refines AHP suitability scores. Two strategic borewell categories are proposed, first, flood overflow borewells (50 sites) near rivers for flood diversion and recharge. Second, normal recharge borewells (50 sites) in inland waterlogged agricultural areas. Compared to existing methods like standalone AHP or ML model, our framework achieves performance with up to 90.4% accuracy. An interactive web application provides public accessibility for stakeholder engagement and policy formulation.

How to cite

Elegí el formato que necesitás y copiá la referencia al portapapeles.

APA 7

al, M. S. E. (2026). A GIS based hybrid AHP and ensemble machine learning framework for identifying groundwater recharge and flood mitigation hotspots. https://doi.org/10.1007/s10791-026-10124-x

MLA

al, Manvinder Sharma et. "A GIS based hybrid AHP and ensemble machine learning framework for identifying groundwater recharge and flood mitigation hotspots." 2026. https://doi.org/10.1007/s10791-026-10124-x.

Chicago

al, Manvinder Sharma et. 2026. "A GIS based hybrid AHP and ensemble machine learning framework for identifying groundwater recharge and flood mitigation hotspots.". https://doi.org/10.1007/s10791-026-10124-x.

Harvard

al, M. S. E. 2026, A GIS based hybrid AHP and ensemble machine learning framework for identifying groundwater recharge and flood mitigation hotspots, Springer, available at: https://doi.org/10.1007/s10791-026-10124-x [Accessed 6 Aug. 2026].

Share and print

Save the record, copy its permanent link, or print it as a PDF.

Export reference

You can export the record in common formats for use in a reference manager.

Resource details

Bibliographic information to help confirm that this is the correct material.

Title
A GIS based hybrid AHP and ensemble machine learning framework for identifying groundwater recharge and flood mitigation hotspots
Author / contributors
Manvinder Sharma et al
Publisher
Springer
Publication year
2026
ISSN
2948-2992
ISSN
2948-2992
Language
English

Subjects

Explore related resources through these subjects.

Copied