Interdecadal Variations of Meridional Winds in the South China Sea and Their Relationship with Summer Climate in China

Analysis of the NCEP and 40-yr ECMWF Re-Analysis (ERA-40) data and the Xisha Island station observation indicates that the low-level meridional wind (LLMW) over the South China Sea (SCS) experienced an interdecadal variation since the late 1970s. The LLMW change is associated with the reduction of t...

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Veröffentlicht in:Journal of climate 2010-02, Vol.23 (4), p.825-841
Hauptverfasser: Li, Chunhui, Li, Tim, Liang, Jianyin, Gu, Dejun, Lin, Ailan, Zheng, Bin
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container_issue 4
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creator Li, Chunhui
Li, Tim
Liang, Jianyin
Gu, Dejun
Lin, Ailan
Zheng, Bin
description Analysis of the NCEP and 40-yr ECMWF Re-Analysis (ERA-40) data and the Xisha Island station observation indicates that the low-level meridional wind (LLMW) over the South China Sea (SCS) experienced an interdecadal variation since the late 1970s. The LLMW change is associated with the reduction of tropospheric temperature in midlatitude East Asia. A mechanism is put forward to explain the triggering and maintenance of the tropospheric cooling. The enhanced convective heating over the southern South China Sea results in a meridional vertical overturning circulation, with anomalous descending motion appearing over continental East Asia. The anomalous descending motion reduces the local humidity through both anomalous low-level divergence and dry vertical advection. The decrease of the local tropospheric humidity leads to the enhanced outgoing longwave radiation into space and thus cold temperature anomalies. The decrease of the temperature and thickness leads to anomalous low (high) pressure and convergent (divergent) flows at upper (lower) levels. This further enhances the descending motion and leads to a positive feedback loop. The fall in tropospheric temperature over continental East Asia reduces the land–sea thermal contrast and leads to the weakening of cross-equatorial flows and the LLMW over SCS. A further diagnosis indicates that the LLMW is closely linked to the summer precipitation and temperature variations in China on interdecadal time scales. A weakening of the LLMW after 1976 is associated with a “−, +, −” meridional rainfall pattern, with less rain in Guangdong Province and north China but more rain in the Yangtze and Huaihe River basins and northeast China, and a “+, −, +” temperature pattern, with increased (decreased) surface temperature in the south and north (central) China.
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The LLMW change is associated with the reduction of tropospheric temperature in midlatitude East Asia. A mechanism is put forward to explain the triggering and maintenance of the tropospheric cooling. The enhanced convective heating over the southern South China Sea results in a meridional vertical overturning circulation, with anomalous descending motion appearing over continental East Asia. The anomalous descending motion reduces the local humidity through both anomalous low-level divergence and dry vertical advection. The decrease of the local tropospheric humidity leads to the enhanced outgoing longwave radiation into space and thus cold temperature anomalies. The decrease of the temperature and thickness leads to anomalous low (high) pressure and convergent (divergent) flows at upper (lower) levels. This further enhances the descending motion and leads to a positive feedback loop. 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source American Meteorological Society; JSTOR Archive Collection A-Z Listing; EZB-FREE-00999 freely available EZB journals
subjects Advection
Anomalies
Climate change
Climatic analysis
Convective heating
Cooling
Correlations
Earth, ocean, space
El Nino
Exact sciences and technology
External geophysics
Feedback loops
Humidity
Islands
Long wave radiation
Marine
Meridional wind
Meteorology
Methods
Monsoons
Movement
Normal distribution
Oceanic analysis
Oceans
Positive feedback
Precipitation
Radiation
Rain
Rainfall
Rainfall patterns
River basins
Seas
Seasonal variations
Seasons
Studies
Summer
Summer climates
Summer precipitation
Surface temperature
Temperature anomalies
Temperature patterns
Temperature variations
Time series
Troposphere
Tropospheric humidity
Variation
Vertical advection
Wind
Winds
Winds and their effects
title Interdecadal Variations of Meridional Winds in the South China Sea and Their Relationship with Summer Climate in China
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