More frequent atmospheric rivers slow the seasonal recovery of Arctic sea ice

被引:0
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作者
Pengfei Zhang
Gang Chen
Mingfang Ting
L. Ruby Leung
Bin Guan
Laifang Li
机构
[1] The Pennsylvania State University,Department of Meteorology and Atmospheric Science
[2] University of California Los Angeles,Department of Atmospheric and Oceanic Sciences
[3] Columbia University,Lamont
[4] Pacific Northwest National Laboratory,Doherty Earth Observatory
[5] University of California Los Angeles,Atmospheric Sciences and Global Change Division
[6] California Institute of Technology,Joint Institute for Regional Earth System Science and Engineering
[7] The Pennsylvania State Univeristy,Jet Propulsion Laboratory
[8] The Pennsylvania State University,Earth and Environmental Systems Institute
来源
Nature Climate Change | 2023年 / 13卷
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摘要
In recent decades, Arctic sea-ice coverage underwent a drastic decline in winter, when sea ice is expected to recover following the melting season. It is unclear to what extent atmospheric processes such as atmospheric rivers (ARs), intense corridors of moisture transport, contribute to this reduced recovery of sea ice. Here, using observations and climate model simulations, we find a robust frequency increase in ARs in early winter over the Barents–Kara Seas and the central Arctic for 1979–2021. The moisture carried by more frequent ARs has intensified surface downward longwave radiation and rainfall, caused stronger melting of thin, fragile ice cover and slowed the seasonal recovery of sea ice, accounting for 34% of the sea-ice cover decline in the Barents–Kara Seas and central Arctic. A series of model ensemble experiments suggests that, in addition to a uniform AR increase in response to anthropogenic warming, tropical Pacific variability also contributes to the observed Arctic AR changes.
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页码:266 / 273
页数:7
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