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Groundwater plays a critical role in sustaining ecosystems, agriculture, and human activities. Effective groundwater monitoring is essential for assessing aquifer health and managing water resources. This abstract provides a comprehensive overview of the emerging approach of utilizing ambient seismic noise for groundwater monitoring. Ambient seismic noise, generated by natural and anthropogenic sources, has proven to be a valuable source of information for characterizing subsurface properties. This technique leverages the continuous and ubiquitous nature of seismic signals, providing a non-invasive and cost-effective means to monitor changes in groundwater levels and properties. The methodology involves analyzing the variations in seismic noise patterns collected by a network of sensors deployed in proximity to the groundwater monitoring area. Changes in subsurface conditions, such as water table fluctuations or alterations in aquifer properties, induce measurable variations in seismic velocity and attenuation. By employing advanced signal processing techniques, researchers can extract valuable information about groundwater dynamics, recharge rates, and aquifer characteristics. This abstract discusses key advantages of ambient seismic noise-based groundwater monitoring, including its ability to offer real-time data, continuous monitoring capabilities, and the potential for early detection of groundwater-related anomalies. Furthermore, the method's non-intrusive nature minimizes environmental impact and reduces the need for extensive drilling or intrusive measurements. The challenges and limitations associated with this approach are also addressed, highlighting the need for further research to optimize data processing techniques, improve resolution, and enhance the method's applicability across diverse geological settings. As the field of ambient seismic noise-based groundwater monitoring continues to evolve, this abstract underscores its potential as a valuable tool for enhancing our understanding of subsurface hydrological processes and advancing sustainable water resource management practices. The integration of ambient seismic noise into existing groundwater monitoring frameworks holds promise for revolutionizing how we assess and manage this vital component of the Earth's water cycle.
Voisin et al. (Fri,) studied this question.
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