Local and remote impacts of seasonal snow cover on atmospheric circulation have been explored extensively, with observational and modelling efforts focusing on how Eurasian autumn snow-cover variability potentially drives Northern Hemisphere atmospheric circulation via the generation of deep, planetary-scale atmospheric waves. Despite climate modelling advances, models remain challenged to reproduce the proposed sequence of processes by which snow cover can influence the atmosphere, calling into question the robustness of this coupling. Here, we summarize the current level of understanding of snow–atmosphere coupling, and the implications of this interaction under future climate change. Projected patterns of snow-cover variability and altered stratospheric conditions suggest a need for new model experiments to isolate the effect of projected changes in snow on the atmosphere.
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This work was partially supported by the Natural Science and Engineering Research Council of Canada under CanSISE and by the National Science Foundation under grant no. NSF PHY-1748958. Y.P. is supported by the National Science Foundation under grant no. NSF AGS-1624038. G.R.H. is supported by SERDP and ESTCP under grant no. RC18-Z1-1658. The authors also thank E. A. Barnes and J. A. Screen for encouraging us to use their Can it? /Has it? /Will it? analysis framework.
Supplementary figures 1-2