20,000 Kilometers of Code: AI's Secret Voyage Across The Ocean
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AI & Environment Resource HubLi et al. · 2025-03-26
AI models have a significant yet overlooked water footprint, requiring transparency and holistic sustainability efforts alongside carbon reduction.
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Li et al.. 2025-03-26. Making AI Less “Thirsty”: Uncovering and Addressing the Secret Water Footprint of AI Models. https://arxiv.org/pdf/2304.03271 (AI & Environment Resource Hub; record paper-007; collection snapshot 2026-10-04).
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Source sheet: Scientific Paper · Row 11 · Original ID: paper-007.
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Shared topics: Water; Oceans and coasts
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Shared topics: Water; Oceans and coasts
Severe flash floods in Charikar, Afghanistan, on August 26, 2020, were driven by extreme atmospheric instability, deep low-level convergence, and local topography, with climate change intensifying frontal activity and baroclinicity in the region.
Shared topics: Water; Oceans and coasts
A machine learning framework was developed to efficiently parametrize large-scale hydrogeologic models by learning the relationship between water table depth and hydraulic conductivity from a small number of simulations, enabling realistic predictions with significantly reduced computational cost.
Shared topics: Water; Oceans and coasts
This study introduces a new foundation model based on the Prithvi-EO Vision Transformer, pre-trained on Sentinel-3 ocean color data, to enhance marine Earth observation. By fine-tuning on chlorophyll and primary production tasks, the model outperforms traditional baselines, showing that self-trained AI can extract detailed spatial patterns from limited labeled data and improve monitoring of ocean ecosystems and climate processes.