Abstract
Arsenic contamination in shallow aquifers of Holocene alluvial basins is a serious health risk affecting millions of people [1]. Detection of arsenic hotspots is a slow and tedious process based on the analysis of groundwater samples. This study improves arsenic risk prediction by incorporating geomorphological features such as oxbow lakes and clay plugs into a machine learning (ML) approach. Advances in remote sensing [2], often combined with ML, enable the efficient detection of these and other proxy features, significantly reducing reliance on labour-intensive fieldwork. By combining these features with environmental and demographic data, the approach provides more accurate and cost-effective risk assessments, enabling better-targeted interventions in vulnerable regions and supporting proactive environmental monitoring.
| Original language | English |
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| Number of pages | 3 |
| Publication status | Published - 2025 |
| Event | ESA Living Planet Symposium 2025 - Vienna, Austria Duration: 23 Jun 2025 → 27 Jun 2025 https://lps25.esa.int/ |
Conference
| Conference | ESA Living Planet Symposium 2025 |
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| Abbreviated title | LPS25 |
| Country/Territory | Austria |
| City | Vienna |
| Period | 23/06/25 → 27/06/25 |
| Internet address |