A New Perspective toward Cataloging Northern Hemisphere Rossby Wave Breaking on the Dynamic Tropopause

Rossby wave breaking (RWB) events are a common feature on the dynamic tropopause and act to modulate synoptic-scale jet dynamics. These events are characterized on the dynamic tropopause by an irreversible overturning of isentropes and are coupled to troposphere-deep vertical motions and geopotentia...

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Veröffentlicht in:Monthly weather review 2019-02, Vol.147 (2), p.409-431
Hauptverfasser: Bowley, Kevin A., Gyakum, John R., Atallah, Eyad H.
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Atallah, Eyad H.
description Rossby wave breaking (RWB) events are a common feature on the dynamic tropopause and act to modulate synoptic-scale jet dynamics. These events are characterized on the dynamic tropopause by an irreversible overturning of isentropes and are coupled to troposphere-deep vertical motions and geopotential height anomalies. Prior climatologies have focused on the poleward streamer, the equatorward streamer, or the reversal in potential temperature gradient between the streamers, resulting in differences in the frequencies of RWB. Here, a new approach toward cataloging these events that captures both streamers is applied to the National Centers for Environmental Prediction Reanalysis-2 dataset for 1979–2011. Anticyclonic RWB (AWB) events are found to be nearly twice as frequent as cyclonic RWB (CWB) events. Seasonal decompositions of the annual mean find AWB to be most common in summer (40% occurrence), which is likely due to the Asian monsoon, while CWB is most frequent in winter (22.5%) and is likely due to the equatorward shift in mean baroclinicity. Trends in RWB from 1980 to 2010 illustrate a westward shift in North Pacific AWB during winter and summer (up to 0.4% yr−1), while CWB in the North Pacific increases in winter and spring (up to 0.2% yr−1). These changes are hypothesized to be associated with localized changes in the two-way interaction between the jet and RWB. The interannual variability of AWB and CWB is also explored, and a notable modality to the frequency of RWB is found that may be attributable to known low-frequency modes of variability including the Arctic Oscillation, the North Atlantic Oscillation, and the Pacific–North American pattern.
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subjects Annual variations
Anomalies
Arctic Oscillation
Asian monsoons
Atmospheric forcing
Baroclinic mode
Baroclinity
Climate
Climatology
Cyclones
Dynamic height
Dynamics
Geopotential
Geopotential height
Height anomalies
Interannual variability
North Atlantic Oscillation
Northern Hemisphere
Ocean-atmosphere system
Pacific-North American (PNA) pattern
Planetary waves
Potential temperature
Rossby wave breaking
Rossby waves
Stratosphere
Streamers
Summer
Temperature
Temperature gradients
Tropopause
Troposphere
Variability
Wave breaking
Winter
title A New Perspective toward Cataloging Northern Hemisphere Rossby Wave Breaking on the Dynamic Tropopause
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