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DOE OSTI · 1769694

Deep learning techniques to disentangle water use efficiency, climate change, and carbon sequestration across ecosystem scales

Abstract

Focal Areas: We plan to use machine learning (ML) to disentangle the impact of climate change on plant water use efficiency (WUE) across the leaf level, structured canopy, and community ecosystem scales. Due to the complex behavior of modeling plant WUE’s connection to carbon storage (and hidden co-varying interactions) we suggest that physics-based deep learning must be utilized. The second topic we propose is, based on a better understanding of WUE response to climate change, there is a need to predict how WUE will limit or enhance the recycling of water from transpiration by vegetation back to the land surface worldwide, and thus impact water storage capacity (i.e., natural and reservoirs), using machine learning optimization techniques such as genetic algorithms.

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BibTeXRIS

Holm, Jennifer A., Keenan, Trevor, Ricciuto, Daniel, Emanuele, Vincent. 2021-04-15. Deep learning techniques to disentangle water use efficiency, climate change, and carbon sequestration across ecosystem scales. https://doi.org/10.2172/1769694

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