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Importance of Resolving Kuroshio Front and Eddy Influence in Simulating the North Pacific Storm Track
Author(s) -
Xiaohui Ma,
Ping Chang,
R. Saravanan,
Raffaele Montuoro,
Hisashi Nakamura,
Dexing Wu,
Xiaopei Lin,
Lixin Wu
Publication year - 2016
Publication title -
journal of climate
Language(s) - English
Resource type - Journals
SCImago Journal Rank - 3.315
H-Index - 287
eISSN - 1520-0442
pISSN - 0894-8755
DOI - 10.1175/jcli-d-16-0154.1
Subject(s) - mesoscale meteorology , climatology , storm track , baroclinity , extratropical cyclone , cyclogenesis , geology , storm , eddy , cyclone (programming language) , front (military) , jet stream , forcing (mathematics) , anticyclone , cold front , barotropic fluid , meteorology , jet (fluid) , oceanography , turbulence , geography , physics , field programmable gate array , computer science , computer hardware , thermodynamics
Local and remote atmospheric responses to mesoscale SST anomalies associated with the oceanic front and eddies in the Kuroshio Extension region (KER) are studied using high- (27 km) and low-resolution (162 km) regional climate model simulations in the North Pacific. In the high-resolution simulations, removal of mesoscale SST anomalies in the KER leads to not only a local reduction in cyclogenesis but also a remote large-scale equivalent barotropic response with a southward shift of the downstream storm track and jet stream in the eastern North Pacific. In the low-resolution simulations, no such significant remote response is found when mesoscale SST anomalies are removed. The difference between the high- and low-resolution model simulated atmospheric responses is attributed to the effect of mesoscale SST variability on cyclogenesis through moist baroclinic instability. It is only when the model has sufficient resolution to resolve small-scale diabatic heating that the full effect of mesoscale SST...

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