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Extratropical Impacts on Atlantic Tropical Cyclone Activity

With warm sea surface temperature (SST) anomalies in the tropical Atlantic and cold SST anomalies in the east Pacific, the unusually quiet hurricane season in 2013 was a surprise to the hurricane community. The authors' analyses suggest that the substantially suppressed Atlantic tropical cyclon...

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Published in:Journal of the atmospheric sciences 2016-03, Vol.73 (3), p.1401-1418
Main Authors: Zhang, Gan, Wang, Zhuo, Dunkerton, Timothy J, Peng, Melinda S, Magnusdottir, Gudrun
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Language:English
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description With warm sea surface temperature (SST) anomalies in the tropical Atlantic and cold SST anomalies in the east Pacific, the unusually quiet hurricane season in 2013 was a surprise to the hurricane community. The authors' analyses suggest that the substantially suppressed Atlantic tropical cyclone (TC) activity in August 2013 can be attributed to frequent breaking of midlatitude Rossby waves, which led to the equatorward intrusion of cold and dry extratropical air. The resultant mid- to upper-tropospheric dryness and strong vertical wind shear hindered TC development. Using the empirical orthogonal function analysis, the active Rossby wave breaking in August 2013 was found to be associated with a recurrent mode of the midlatitude jet stream over the North Atlantic, which represents the variability of the intensity and zonal extent of the jet. This mode is significantly correlated with Atlantic hurricane frequency. The correlation coefficient is comparable to the correlation of Atlantic hurricane frequency with the main development region (MDR) relative SST and higher than that with the Nino-3.4 index. This study highlights the extratropical impacts on Atlantic TC activity, which may have important implications for the seasonal predictability of Atlantic TCs.
doi_str_mv 10.1175/JAS-D-15-0154.1
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subjects Anomalies
Atmospherics
Correlation
Correlation coefficient
Cyclones
General circulation models
Hurricanes
Laboratories
Marine
Meteorology
Orthogonal functions
Sea surface temperature
Seasons
Statistical analysis
Studies
Tropical cyclones
Wind shear
title Extratropical Impacts on Atlantic Tropical Cyclone Activity
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