Differential Impacts of Sub‐Daily Precipitation on Temperature Extremes Across China's Climatic Zones

Abstract Precipitation events can effect temperature and modulate its response to climate change, yet the impact of sub‐daily precipitation on temperature extremes in China has been understudied. This study therefore focuses on the impact of precipitation on daily maximum temperature ( T max ) and daily minimum temperature ( T min ) across China's climatic regions from 1952 to 2019. Results show that precipitation‐induced cooling effects on T max through cloud effects and evaporative cooling, particularly in arid and semi‐humid regions. In arid regions, precipitation enhances T min through increased downward longwave radiation and changes in soil thermodynamics, while in humid regions, rainfall‐induced evaporative cooling suppresses T min . Notably, the T max warming trend during rainy weathers lacks statistical significance in humid regions, and T min consistently warms more during dry conditions. These findings reveal a saturation effect of precipitation on temperature and provide a framework for understanding precipitation‐temperature interactions, with implications for refining climate model and assessing global warming.

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Publication Details

Journal
Geophysical Research Letters
Published
2025-05-07
DOI
https://doi.org/10.1029/2024gl114088
Citations
3
Primary Topic
Climate variability and models
Type
article
Field-Weighted Citation Impact
3.32

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article

Differential Impacts of Sub‐Daily Precipitation on Temperature Extremes Across China's Climatic Zones

Zhiyang Wang, Xiaoping Li, Shanshan Wang, Chengqing Chen
3 citations
Geophysical Research Letters
Climate variability and models
3.32
article

Differential Impacts of Sub‐Daily Precipitation on Temperature Extremes Across China's Climatic Zones

Zhiyang Wang, Xiaoping Li, Shanshan Wang, Chengqing Chen
article en
3 citations

Abstract

Abstract Precipitation events can effect temperature and modulate its response to climate change, yet the impact of sub‐daily precipitation on temperature extremes in China has been understudied. This study therefore focuses on the impact of precipitation on daily maximum temperature ( T max ) and daily minimum temperature ( T min ) across China's climatic regions from 1952 to 2019. Results show that precipitation‐induced cooling effects on T max through cloud effects and evaporative cooling, particularly in arid and semi‐humid regions. In arid regions, precipitation enhances T min through increased downward longwave radiation and changes in soil thermodynamics, while in humid regions, rainfall‐induced evaporative cooling suppresses T min . Notably, the T max warming trend during rainy weathers lacks statistical significance in humid regions, and T min consistently warms more during dry conditions. These findings reveal a saturation effect of precipitation on temperature and provide a framework for understanding precipitation‐temperature interactions, with implications for refining climate model and assessing global warming.

Geophysical Research LettersVol. 52(9)
Lanzhou University (CN)
National Natural Science Foundation of China
Openalex Percentile: Top 9%
Climate variability and models
3.32
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