Beaufort Gyre Liquid Freshwater Content Change Under Greenhouse Warming From an Eddy‐Resolving Climate Simulation

Abstract Future changes in the Beaufort Gyre liquid freshwater content (LFWC) are important for the local and global climate. However, traditional climate models cannot resolve oceanic and atmospheric eddies that are critical to the LFWC variations. In this study, we investigate physical processes controlling Beaufort Gyre LFWC changes in an eddy‐resolving simulation. The model simulation largely reproduces the observed LFWC changes, and projects a long‐term LFWC increase with an intensification of its decadal variability during the 21st century. Freshwater budget analysis suggests that future LFWC changes are strongly influenced by sea ice melt. The conversion from solid to liquid phase provides more liquid freshwater into the ocean. Meanwhile, sea ice loss enhances the efficiency of air‐sea momentum transfer, leading to increased wind‐driven freshwater convergence and its variability. The decadal variation of the LFWC will regulate Arctic freshwater exports and coincident with an O (0.5 Sv) change in the meridional overturning circulation.

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Publication Details

Journal
Geophysical Research Letters
Published
2025-04-25
DOI
https://doi.org/10.1029/2024gl113847
Primary Topic
Arctic and Antarctic ice dynamics
Type
article
Field-Weighted Citation Impact
0.00

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article

Beaufort Gyre Liquid Freshwater Content Change Under Greenhouse Warming From an Eddy‐Resolving Climate Simulation

Michael A. Spall, Xuan Shan, Shantong Sun, Lixin Wu
Geophysical Research Letters
Arctic and Antarctic ice dynamics
article

Beaufort Gyre Liquid Freshwater Content Change Under Greenhouse Warming From an Eddy‐Resolving Climate Simulation

Michael A. Spall, Xuan Shan, Shantong Sun, Lixin Wu
article en

Abstract

Abstract Future changes in the Beaufort Gyre liquid freshwater content (LFWC) are important for the local and global climate. However, traditional climate models cannot resolve oceanic and atmospheric eddies that are critical to the LFWC variations. In this study, we investigate physical processes controlling Beaufort Gyre LFWC changes in an eddy‐resolving simulation. The model simulation largely reproduces the observed LFWC changes, and projects a long‐term LFWC increase with an intensification of its decadal variability during the 21st century. Freshwater budget analysis suggests that future LFWC changes are strongly influenced by sea ice melt. The conversion from solid to liquid phase provides more liquid freshwater into the ocean. Meanwhile, sea ice loss enhances the efficiency of air‐sea momentum transfer, leading to increased wind‐driven freshwater convergence and its variability. The decadal variation of the LFWC will regulate Arctic freshwater exports and coincident with an O (0.5 Sv) change in the meridional overturning circulation.

Geophysical Research LettersVol. 52(8)
Laoshan Laboratory, Ocean University of China (CN), Woods Hole Oceanographic Institution (US)
National Science Foundation, Ocean University of China
Openalex Percentile: Top 87%
Arctic and Antarctic ice dynamics
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