Seasonal-to-Interannual Response of Southern Ocean Mixed Layer Depth to the Southern Annular Mode from a Global 1/10° Ocean Model

The relationship between the southern annular mode (SAM) and Southern Ocean mixed layer depth (MLD) is investigated using a global 0.1° resolution ocean model. The SAM index is defined as the principal component time series of the leading empirical orthogonal function of extratropical sea level pres...

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Veröffentlicht in:Journal of climate 2019-09, Vol.32 (18), p.6177-6196
Hauptverfasser: Li, Qian, Lee, Sukyoung, England, Matthew H., McClean, Julie L.
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Lee, Sukyoung
England, Matthew H.
McClean, Julie L.
description The relationship between the southern annular mode (SAM) and Southern Ocean mixed layer depth (MLD) is investigated using a global 0.1° resolution ocean model. The SAM index is defined as the principal component time series of the leading empirical orthogonal function of extratropical sea level pressure from September to December, when the zonally symmetric SAM feature is most prominent. Following positive phases of the SAM, anomalous deep mixed layers occur in the subsequent fall season, starting in May, particularly in the southeast Pacific. Composite analyses reveal that for positive SAM phases enhanced surface cooling caused by anomalously strong westerlies weakens the stratification of the water column, leading to deeper mixed layers during spring when the SAM signal is at its strongest. During the subsequent summer, the surface warms and the mixed layer shoals. However, beneath the warm surface layer, anomalously weak stratification persists throughout the summer and into fall. When the surface cools again during fall, the mixed layer readily deepens due to this weak interior stratification, a legacy from the previous springtime conditions. Therefore, the spring SAM–fall MLD relationship is interpreted here as a manifestation of reemergence of interior water mass anomalies. The opposite occurs after negative phases of the SAM, with anomalously shallow mixed layers resulting. Additional analyses reveal that for the MLD region in the southeast Pacific, the effects of salinity variations and Ekman heat advection are negligible, although Ekman heat transportmay play an important role in other regions where mode water is formed, such as south of Australia and in the Indian Ocean.
doi_str_mv 10.1175/JCLI-D-19-0159.1
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When the surface cools again during fall, the mixed layer readily deepens due to this weak interior stratification, a legacy from the previous springtime conditions. Therefore, the spring SAM–fall MLD relationship is interpreted here as a manifestation of reemergence of interior water mass anomalies. The opposite occurs after negative phases of the SAM, with anomalously shallow mixed layers resulting. 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When the surface cools again during fall, the mixed layer readily deepens due to this weak interior stratification, a legacy from the previous springtime conditions. Therefore, the spring SAM–fall MLD relationship is interpreted here as a manifestation of reemergence of interior water mass anomalies. The opposite occurs after negative phases of the SAM, with anomalously shallow mixed layers resulting. 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source American Meteorological Society; Elektronische Zeitschriftenbibliothek - Frei zugängliche E-Journals; JSTOR Archive Collection A-Z Listing
subjects Advection
Anomalies
Antarctic Oscillation
Atmosphere-ocean interaction
Carbon
Climate variability
Empirical analysis
ENVIRONMENTAL SCIENCES
General circulation models
Heat
Heat transport
INORGANIC, ORGANIC, PHYSICAL, AND ANALYTICAL CHEMISTRY
Interannual variability
Meteorology & atmospheric sciences
Mixed layer
Mixed layer depth
Ocean circulation
Ocean mixed layer
Ocean models
Oceans
Orthogonal functions
Phases
Salinity
Salinity variations
Sea level
Sea level pressure
Shoals
Simulation
Southern Ocean
Spring
Spring (season)
Stratification
Studies
Summer
Surface boundary layer
Surface cooling
Surface layers
Water circulation
Water column
Water masses
Water stratification
Westerlies
title Seasonal-to-Interannual Response of Southern Ocean Mixed Layer Depth to the Southern Annular Mode from a Global 1/10° Ocean Model
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