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Machine Learning for Precipitation Nowcasting from Radar Images
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High-resolution nowcasting is an essential tool needed for effective adaptation to climate change, particularly for extreme weather. As Deep Learning (DL) techniques have shown dramatic promise in many domains, including the geosciences, we present an application of DL to the problem of precipitation nowcasting, i.e., high-resolution (1 km x 1 km) short-term (1 hour) predictions of precipitation. We treat forecasting as an image-to-image translation problem and leverage the power of the ubiquitous UNET convolutional neural network. We find this performs favorably when compared to three commonly used models: optical flow, persistence and NOAA's numerical one-hour HRRR nowcasting prediction.
Forward citations
Cited by 4 Pith papers
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A graph-neural-network weather model trained only on raw observations produces skillful global forecasts out to five days, with tropical 2-meter temperature forecasts competitive with the operational IFS.
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Stop using root-mean-square error as a precipitation target!
Training precipitation models with Tweedie deviance instead of root-mean-square error improves extreme-rainfall recall in downscaling and improves nowcasting skill, with gains compounding over autoregressive lead times.
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Self-supervised Spatial-Temporal Learner for Precipitation Nowcasting
SpaT-SparK, a SparK-based masked-image-modeling pretrainer with a translation network, reduces pMSE for short-term precipitation nowcasting but sacrifices recall and skill scores versus the smaller SmaAt-UNet.
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