An essential component of sustainable water resource management is groundwater recharge, a process that replenishes aquifers and ensures a reliable supply of water for various uses. This study presents a comprehensive approach that integrates hydrological, geological, and remote sensing techniques to evaluate groundwater recharge more effectively. By combining these methods, the study aims to overcome the limitations of using individual techniques in isolation and to provide a more accurate assessment of recharge rates across different landscapes. The integrated method begins with remote sensing, which is utilized to analyze land cover and soil moisture levels. This technology allows for large-scale monitoring of surface conditions that influence groundwater recharge, offering a detailed view of how different types of vegetation, land use, and soil characteristics affect water infiltration. Geological characterization follows, where the study identifies specific areas with favourable conditions for recharge, such as porous rock formations and fault zones that facilitate water percolation into underground aquifers. Finally, hydrological modelling is employed to estimate the actual recharge rates, taking into account factors such as precipitation, evapotranspiration, and surface runoff. This integrated approach was applied in a semi-arid region where groundwater serves as the primary water source for both human consumption and agricultural activities. Notably, the approach also uncovered previously unknown recharge zones, highlighting the potential of this method to improve groundwater management practices. The findings demonstrate that by using an integrated approach, researchers can gain a more comprehensive understanding of groundwater recharge dynamics. This approach addresses the limitations of relying on individual methods and provides more robust data for decision-making. The results of this study can serve as a foundation for developing sustainable groundwater management strategies, ensuring long-term water security for communities and ecosystems in the region.