Organizational Modes of Spring and Summer Convective Storms and Associated Severe Weather over Southern China during 2015–19

This study investigates the organizational modes of convective storms and associated severe weather in spring and summer (March–August) of 2015–19 over southern China. These storms are classified into three major organizational structures (cellular, linear, and nonlinear), including 10 dominant morp...

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Veröffentlicht in:Monthly weather review 2022-11, Vol.150 (11), p.3031-3049
Hauptverfasser: Xue, Chenbin, Shen, Xinyong, Ding, Zhiying, Wu, Naigeng, Zhang, Yizhi, Chen, Xian, Guo, Chunyan
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container_issue 11
container_start_page 3031
container_title Monthly weather review
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creator Xue, Chenbin
Shen, Xinyong
Ding, Zhiying
Wu, Naigeng
Zhang, Yizhi
Chen, Xian
Guo, Chunyan
description This study investigates the organizational modes of convective storms and associated severe weather in spring and summer (March–August) of 2015–19 over southern China. These storms are classified into three major organizational structures (cellular, linear, and nonlinear), including 10 dominant morphologies. In general, cellular systems are most frequent, followed by linear systems. Convective storms are common in spring, increasing markedly from April to June, and peak in June. Convective storm cases are usually longer lived in spring, while shorter lived in summer. They also present pronounced diurnal variations, with a primary peak in the afternoon and several secondary peaks during the night to the morning. Approximately 79.7% of initial convection clearly exhibits a dominant eastward movement, with a faster moving speed in spring. Convective storms frequently evolve among organizational modes during their life spans. Linear systems produce the most severe weather observations, in which convective lines with trailing stratiform rain are most prolific. Bow echoes are most efficient in producing severe weather events among all systems, despite their rare occurrences. In spring, lines with parallel stratiform rain are abundant producers of severe wind events, ranking the second highest probability. In summer, embedded lines produce the second largest proportion of intense rainfall events, whereas lines with leading stratiform rain are most efficient in generating extremely intense rainfall and thus pose a distinct flooding threat. Broken lines produce the largest proportion of severe weather events among cellular storms. In contrast, nonlinear systems possess the weakest capability to produce severe weather events.
doi_str_mv 10.1175/MWR-D-22-0061.1
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Bow echoes are most efficient in producing severe weather events among all systems, despite their rare occurrences. In spring, lines with parallel stratiform rain are abundant producers of severe wind events, ranking the second highest probability. In summer, embedded lines produce the second largest proportion of intense rainfall events, whereas lines with leading stratiform rain are most efficient in generating extremely intense rainfall and thus pose a distinct flooding threat. Broken lines produce the largest proportion of severe weather events among cellular storms. 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Bow echoes are most efficient in producing severe weather events among all systems, despite their rare occurrences. In spring, lines with parallel stratiform rain are abundant producers of severe wind events, ranking the second highest probability. In summer, embedded lines produce the second largest proportion of intense rainfall events, whereas lines with leading stratiform rain are most efficient in generating extremely intense rainfall and thus pose a distinct flooding threat. Broken lines produce the largest proportion of severe weather events among cellular storms. In contrast, nonlinear systems possess the weakest capability to produce severe weather events.</abstract><cop>Washington</cop><pub>American Meteorological Society</pub><doi>10.1175/MWR-D-22-0061.1</doi><tpages>19</tpages></addata></record>
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source American Meteorological Society; Elektronische Zeitschriftenbibliothek - Frei zugängliche E-Journals; Alma/SFX Local Collection
subjects Atmospheric precipitations
Cellular structure
Classification
Classification schemes
Convection
Convective storms
Disasters
Diurnal variations
East Asian monsoon
Echoes
Floods
Linear systems
Mesoscale convective complexes
Modes
Morphology
Movement
Natural disasters
Nonlinear systems
Precipitation
Probability theory
Rain
Rainfall
Satellites
Severe weather
Spring
Spring (season)
Storm forecasting
Storms
Summer
Summer monsoon
Weather
Wind
title Organizational Modes of Spring and Summer Convective Storms and Associated Severe Weather over Southern China during 2015–19
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