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DOE OSTI · 1883394

Physics-Informed AI for Climate and Weather Risk Prediction (Final Report)

Abstract

As part of the work Terrafuse developed 1) a model for wildfire risk in California, and 2) a model for downscaled wind fields from Numerical Weather Prediction (NWP) numerical models. The wildfire model is based on 20 years of historical data and captures the dependence of wildfire incidence and spread on climatic, weather and land-use variables by training a machine learning model. Nonlinear relationships between input features are learned and expressed by the model and model transparency allows features to be ranked and interpreted. The fire model is of use for accurately predicting real-time daily and long-term wildfire risk for use cases in energy and insurance. The downscaled wind model is a spatio-temporal deep learning model that emulates the influence of high-resolution variables on wind speed, allowing coarse-resolution operational NWP models to be accurately expressed on fine grids at high resolution, with application to wind energy and weather forecasting.

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BibTeXRIS

Kirchstetter, Thomas, White, Brian. 2022-08-25. Physics-Informed AI for Climate and Weather Risk Prediction (Final Report). https://doi.org/10.2172/1883394

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