Relationship between precipitation and cloud properties in different regions of Southwest China

The relationship between precipitation and cloud properties in Southwest China are investigated by using the CLARA‐A2 cloud parameters data and TRMM‐3B43 precipitation data from 1998 to 2015. Ice water path (IWP) and cloud top height (CTH) are significantly and positively correlated with precipitati...

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Veröffentlicht in:International journal of climatology 2024-06, Vol.44 (7), p.2297-2317
Hauptverfasser: Wang, Yuting, Zhao, Pengguo, Zhao, Chuanfeng, Xiao, Hui, Mo, Shuying, Yuan, Liang, Wei, Chengqiang, Zhou, Yunjun
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container_end_page 2317
container_issue 7
container_start_page 2297
container_title International journal of climatology
container_volume 44
creator Wang, Yuting
Zhao, Pengguo
Zhao, Chuanfeng
Xiao, Hui
Mo, Shuying
Yuan, Liang
Wei, Chengqiang
Zhou, Yunjun
description The relationship between precipitation and cloud properties in Southwest China are investigated by using the CLARA‐A2 cloud parameters data and TRMM‐3B43 precipitation data from 1998 to 2015. Ice water path (IWP) and cloud top height (CTH) are significantly and positively correlated with precipitation in all regions, indicating that ice‐phase processes and cloud development processes are the critical processes influencing precipitation. Precipitation is also directly associated with cloud fractional coverage (CFC) due to the significant positive correlation between CFC and precipitation in all regions except the Sichuan Basin (SCB). A positive correlation between liquid water path (LWP) and precipitation is found in the Eastern Tibetan Plateau (ETP) and Yunnan‐Kweichow Plateau (YKP), but not in the Western Tibetan Plateau (WTP) and SCB. Notably, the response of precipitation to LWP is not as good as that to IWP in SCB. Precipitation is significantly negatively correlated with ice effective radius (IREF) in WTP and ETP and positively correlated with liquid effective radius (LREF) in ETP, YKP and SCB. IREF and LREF are closely related to cloud microphysical processes. Specifically, small IREF could accelerate the Bergeron process and thus increase precipitation, while large LREF is closely related to the cloud droplets coalescence process. Results indicate that the difference in precipitation between the cold and warm seasons is related to convective available potential energy (CAPE) and low troposphere relative humidity (RH). High CAPE and RH favour the precipitation occurrence in Southwest China. The influence of CAPE and RH on precipitation is more significant in the ETP than that in the WTP, owing to the orographic lifting and moisture transport from the Indian Ocean. Thermodynamic and humidity conditions have a greater impact on precipitation by influencing LREF, LWP and IWP in YKP. In SCB, precipitation shows a strong dependence on CAPE, IWP and LREF, but not on RH. Small IREF and large LREF could promote precipitation at high CAPE and RH. In the SCB, the response of precipitation to LWP is not as good as that to IWP. CTH are significantly and positively correlated with precipitation in all regions.
doi_str_mv 10.1002/joc.8455
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Ice water path (IWP) and cloud top height (CTH) are significantly and positively correlated with precipitation in all regions, indicating that ice‐phase processes and cloud development processes are the critical processes influencing precipitation. Precipitation is also directly associated with cloud fractional coverage (CFC) due to the significant positive correlation between CFC and precipitation in all regions except the Sichuan Basin (SCB). A positive correlation between liquid water path (LWP) and precipitation is found in the Eastern Tibetan Plateau (ETP) and Yunnan‐Kweichow Plateau (YKP), but not in the Western Tibetan Plateau (WTP) and SCB. Notably, the response of precipitation to LWP is not as good as that to IWP in SCB. Precipitation is significantly negatively correlated with ice effective radius (IREF) in WTP and ETP and positively correlated with liquid effective radius (LREF) in ETP, YKP and SCB. IREF and LREF are closely related to cloud microphysical processes. Specifically, small IREF could accelerate the Bergeron process and thus increase precipitation, while large LREF is closely related to the cloud droplets coalescence process. Results indicate that the difference in precipitation between the cold and warm seasons is related to convective available potential energy (CAPE) and low troposphere relative humidity (RH). High CAPE and RH favour the precipitation occurrence in Southwest China. The influence of CAPE and RH on precipitation is more significant in the ETP than that in the WTP, owing to the orographic lifting and moisture transport from the Indian Ocean. Thermodynamic and humidity conditions have a greater impact on precipitation by influencing LREF, LWP and IWP in YKP. In SCB, precipitation shows a strong dependence on CAPE, IWP and LREF, but not on RH. Small IREF and large LREF could promote precipitation at high CAPE and RH. In the SCB, the response of precipitation to LWP is not as good as that to IWP. 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Ice water path (IWP) and cloud top height (CTH) are significantly and positively correlated with precipitation in all regions, indicating that ice‐phase processes and cloud development processes are the critical processes influencing precipitation. Precipitation is also directly associated with cloud fractional coverage (CFC) due to the significant positive correlation between CFC and precipitation in all regions except the Sichuan Basin (SCB). A positive correlation between liquid water path (LWP) and precipitation is found in the Eastern Tibetan Plateau (ETP) and Yunnan‐Kweichow Plateau (YKP), but not in the Western Tibetan Plateau (WTP) and SCB. Notably, the response of precipitation to LWP is not as good as that to IWP in SCB. Precipitation is significantly negatively correlated with ice effective radius (IREF) in WTP and ETP and positively correlated with liquid effective radius (LREF) in ETP, YKP and SCB. IREF and LREF are closely related to cloud microphysical processes. Specifically, small IREF could accelerate the Bergeron process and thus increase precipitation, while large LREF is closely related to the cloud droplets coalescence process. Results indicate that the difference in precipitation between the cold and warm seasons is related to convective available potential energy (CAPE) and low troposphere relative humidity (RH). High CAPE and RH favour the precipitation occurrence in Southwest China. The influence of CAPE and RH on precipitation is more significant in the ETP than that in the WTP, owing to the orographic lifting and moisture transport from the Indian Ocean. Thermodynamic and humidity conditions have a greater impact on precipitation by influencing LREF, LWP and IWP in YKP. In SCB, precipitation shows a strong dependence on CAPE, IWP and LREF, but not on RH. Small IREF and large LREF could promote precipitation at high CAPE and RH. In the SCB, the response of precipitation to LWP is not as good as that to IWP. CTH are significantly and positively correlated with precipitation in all regions.</description><subject>Cloud development</subject><subject>Cloud droplets</subject><subject>cloud macrophysical properties</subject><subject>cloud microphysical properties</subject><subject>Cloud microphysics</subject><subject>Cloud properties</subject><subject>Clouds</subject><subject>cloud–precipitation relations</subject><subject>Coalescence</subject><subject>Convective available potential energy</subject><subject>Correlation</subject><subject>Humidity</subject><subject>Hydrologic data</subject><subject>meteorological conditions</subject><subject>Plateaus</subject><subject>Potential energy</subject><subject>Precipitation</subject><subject>Precipitation data</subject><subject>Relative humidity</subject><subject>Southwest China</subject><subject>Troposphere</subject><subject>Warm seasons</subject><subject>Water</subject><issn>0899-8418</issn><issn>1097-0088</issn><fulltext>true</fulltext><rsrctype>article</rsrctype><creationdate>2024</creationdate><recordtype>article</recordtype><recordid>eNp1kMtqwzAQRUVpoWla6CcIuunGqWRZjrQspk8CgT7WQpZHtYJruZJNyN9XSbrtaoaZM3cuF6FrShaUkPxu481CFJyfoBklcpkRIsQpmhEhZSYKKs7RRYwbQoiUtJwh9QadHp3vY-sGXMO4BejxEMC4wY2HDdZ9g03npybN_QBhdBCx63HjrIUA_YgDfO0lsLf43U9ju4U44qp1vb5EZ1Z3Ea7-6hx9Pj58VM_Zav30Ut2vMpPzgmeCA11yzQrDwCZnlpe60dYUnLLS1IznzJTEUKGl0VLntq6lhLwmqYOyrtkc3Rx1k8WfKb1XGz-FPr1UjJQF41RwkajbI2WCjzGAVUNw3zrsFCVqH1-6MmofX0KzI7p1Hez-5dTrujrwvwS-cv0</recordid><startdate>20240615</startdate><enddate>20240615</enddate><creator>Wang, Yuting</creator><creator>Zhao, Pengguo</creator><creator>Zhao, Chuanfeng</creator><creator>Xiao, Hui</creator><creator>Mo, Shuying</creator><creator>Yuan, Liang</creator><creator>Wei, Chengqiang</creator><creator>Zhou, Yunjun</creator><general>John Wiley &amp; 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Ice water path (IWP) and cloud top height (CTH) are significantly and positively correlated with precipitation in all regions, indicating that ice‐phase processes and cloud development processes are the critical processes influencing precipitation. Precipitation is also directly associated with cloud fractional coverage (CFC) due to the significant positive correlation between CFC and precipitation in all regions except the Sichuan Basin (SCB). A positive correlation between liquid water path (LWP) and precipitation is found in the Eastern Tibetan Plateau (ETP) and Yunnan‐Kweichow Plateau (YKP), but not in the Western Tibetan Plateau (WTP) and SCB. Notably, the response of precipitation to LWP is not as good as that to IWP in SCB. Precipitation is significantly negatively correlated with ice effective radius (IREF) in WTP and ETP and positively correlated with liquid effective radius (LREF) in ETP, YKP and SCB. IREF and LREF are closely related to cloud microphysical processes. Specifically, small IREF could accelerate the Bergeron process and thus increase precipitation, while large LREF is closely related to the cloud droplets coalescence process. Results indicate that the difference in precipitation between the cold and warm seasons is related to convective available potential energy (CAPE) and low troposphere relative humidity (RH). High CAPE and RH favour the precipitation occurrence in Southwest China. The influence of CAPE and RH on precipitation is more significant in the ETP than that in the WTP, owing to the orographic lifting and moisture transport from the Indian Ocean. Thermodynamic and humidity conditions have a greater impact on precipitation by influencing LREF, LWP and IWP in YKP. In SCB, precipitation shows a strong dependence on CAPE, IWP and LREF, but not on RH. Small IREF and large LREF could promote precipitation at high CAPE and RH. In the SCB, the response of precipitation to LWP is not as good as that to IWP. CTH are significantly and positively correlated with precipitation in all regions.</abstract><cop>Chichester, UK</cop><pub>John Wiley &amp; Sons, Ltd</pub><doi>10.1002/joc.8455</doi><tpages>21</tpages><orcidid>https://orcid.org/0009-0001-5770-9112</orcidid><orcidid>https://orcid.org/0000-0002-5196-3996</orcidid></addata></record>
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subjects Cloud development
Cloud droplets
cloud macrophysical properties
cloud microphysical properties
Cloud microphysics
Cloud properties
Clouds
cloud–precipitation relations
Coalescence
Convective available potential energy
Correlation
Humidity
Hydrologic data
meteorological conditions
Plateaus
Potential energy
Precipitation
Precipitation data
Relative humidity
Southwest China
Troposphere
Warm seasons
Water
title Relationship between precipitation and cloud properties in different regions of Southwest China
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