个人科研简历
一、姓名
王爱慧
二、研究方向
陆气相互作用与气候变化
三、教育及工作经历
1994年9月—1998年7月，兰州大学，学士
1998年9月—2001年7月，兰州大学，硕士
2001年9月—2006年7月，中国科学院大气物理研究所，博士
2003年12月—2006年8月，美国亚利桑那大学大气科学系，研究助理
2006年9月—2007年12月，美国华盛顿大学土木与环境工程系，博士后
2008年1月—2009年12月，中国科学院大气物理研究所，助理研究员
2010年1月—2013年12月，中国科学院大气物理研究所，副研究员
2010年11月—2011年5月，美国亚利桑那大学大气科学系，访问学者
2014年1月—至今，中国科学院大气物理研究所，研究员
四、近五年（2021-2025）主持科研项目
(含项目名称、类别、项目金额）
国家重点研发项目“跨流域跨区域特大干旱场景推演与智慧防御”，课题负责人，2022-2025，240万，在研
国家自然科学基金委员会,国家杰出青年科学基金, 41925021,陆气相互作用和气候变化, 2020—2024, 400万元,已结题
国家自然科学基金委员会,面上项目, 41875106,中国干湿过渡带陆气相互作用及其对气候变化影响研究, 2019—2022，已结题
五、近五年（2021-2025）发表学术论文列表
（*通讯作者）
1.Wang, A.*, Y. Chen, M. Li, Y. Gao, and X. Ma,2025: A Review of Soil Moisture Data in China: Definitions, sources, and applications in hydrometeorology research. Bulletin of the American Meteorological Society, 6, E1108–E1129.
2.Chen, Y., A.Wang*,and X.Ma,2025:Observed evidence and physicalmechanism of preceding soil temperaturevariability affecting sub-seasonal airtemperature in summer over Chinesemainland. Journal of GeophysicalResearch: Atmospheres, 130,e2024JD043071.
3.Kong, X., A. Wang*, Y. Xue, N. Wei, H. Zhang, Q. Hu, J. He, X. Bi, and Y. Chen Yue, 2025: Predicting on the extreme precipitation in East and Southeast Asia during summer 2022 from the antecedent soil temperature anomaly over the Tibetan Plateau. Journal of Climate, 38, 2109-2128.
4.Yu, L., A. Wang, and C. Liu, 2025: A scale separation hybrid predictive model and its application to predict summer monthly precipitation in Northeast China, Advance in Atmosphere Sciences,doi:10.1007/s00376-025-5113-2
5.Li, Q., Y. Xue, X. Kong, K-M Lau, A. Wang, et al.,2025: Excessive Tibetan Plateau spring warming found to cause catastrophic June 2024 heavy rainfall in China. Science Bulletin, 70, 1596–1600.
6.Ma, X., A. Wang*, and J. Sun, 2024: Land surface processes response to warming and wetting trend in Northwest China. Environmental Research Letters, 19, 104017.
7.He, Q., H. Lu, K. Yang, T. Oki, J. Zhou, L. Zhao, P. Yao, J. He, A.Wang, Y. Xu, 2024: Global optimization of soil texture maps from satellite‐observed soil moisture drydowns and its implementation in Noah‐MP Land Surface Model. 16, e2023MS004142.
8.Chen,Y., A. Wang*, 2024:Role of land–atmosphere coupling in persistent extreme climate events in eastern China in summer 2022. Atmospheric and Oceanic Science Letters, 17, 100419.
9.Kong, X., J. Jin, A. Wang, X. Dong, X. Bi and H. Zhang, 2024: Impacts of nudged sea surface temperature on tropical precipitation, moisture, and vertical velocity in an earth system model. Journal of Climate, 37, 457–473.
10.Kong, X., A. Wang, X. Bi, J. Wei, X. Li, 2023: The influence of different parameterizations on diurnal cycle of land precipitation in CAS-ESM. Atmospheric Research, 282, 106511.
11.Chen,Y., A. Wang*, and G. Feng, 2023: The relative contribution of large‑scale circulation and local soil moisture to summer precipitation over Asian mid‑low latitudes. Climate Dynamics. 60, 2097–2112.
12.Wang, A.*, and X. Ma, 2023: An overview of soil moisture drought research in China: Progress and perspective. Atmospheric and Oceanic Science Letters, 16, 100297
13.Wang, A*., Kong, X., Chen, Y., and Ma X., 2022: Evaluation of soil moisturein CMIP6 multimodel simulations over conterminous China. Journal of Geophysical Research: Atmospheres,127(19), e2022JD037072.
14.Wang, A.*, Miao, Y., Kong, X., and Wu, H., 2022: Future changes in global runoff and runoff coefficient from CMIP6 multi-model simulation underSSP1-2.6 and SSP5-8.5 scenarios. Earth's Future, 10(12), e2022EF002910.
15.Ma, X., and A. Wang*, 2022: Systematic evaluation of a high-resolution CLM5 Simulation over Continental China for 1979–2018. Journal of Hydrometeorology, 23, 1879–1897.
16.Wang, D., A.Wang*, and Z. Wang, 2022: A multilayer daily high-resolution gridded homogenized soil temperature over continental China. International Journal of Climatology, 43, 2015–2030.
17.Kong, X., A. Wang*, X. Bi, B. Sun, and J. Wei, 2022: The hourly precipitation frequencies in the tropical-belt version of WRF: sensitivity to cumulus parameterization and radiation schemes. Journal of Climate, 35, 285−304.
18.Xu, L., T. Zhang, A. Wang, W. Yu, and S.Yang, 2022: Variations of summer extreme and total precipitation over southeast Asia and associated atmospheric and oceanic features. Journal of Climate, 35, 2794−2807.
19.Ye, T., W. Liu, S. Chen, D. Chen, P. Shi, A.Wang, and Y. Li, 2022: Reducing livestock snow disaster risk in the Qinghai–Tibetan Plateau due to warming and socioeconomic development. Science of the Total Environment. 813, 151869.
20.Duarte H., Brett M. Raczka, D.Bowling, D., A. Wang, P.，Buotte, and J. Lin, 2022: How can biosphere models simulate enough vegetation biomass in the mountains of the western United States? Implications of meteorological forcing, Environmental Modelling and Software. 148, 105288.
21.Wang, D., A. Wang*, and X. Kong, 2021: Homogenization of the daily land surface temperature over the mainland of China from 1960 through 2017. Advance in Atmosphere Sciences 38(11)1811−1822.
22.Xu, L., A. Wang*, W. Yu, and S. Yang, 2021: Hot spots of extreme precipitation change under 1.5 and 2C global warming scenarios, Weather and Climate Extremes, 33, 100357.
23.Sun, B, H. Wang, A. Wang et al., 2021: regularity and irregularity of the seasonal northward march of the East Asian summer wet environment and the influential factors. J. Climate, 34, 545–566.
24.孙嘉敏,王爱慧*. 2024: 近120年中国干旱年际特征变化及主要的影响因子[J].气候与环境研究.29 (6): 681−694.
25.陈玥,王爱慧*,支蓉,等.2023:中国东部降水中大尺度环流和局地陆—气相互作用的贡献：河南“21·7”强降水事件特征影响因子探究[J].大气科学, 47(2):551−566.
26.陈玥, 王爱慧*,2023.方春季土壤湿度对夏季干热少雨复合事件的影响[J]. 46(3),332-344.
27.王爱慧*, 缪月,史学丽, 2021: CMIP6土地利用模式比较计划（LUMIP）概况与评述[J].气候变化研究进展,17(3),367-373.
28.王爱慧*，缪月，陈玥，2021：1961-2016年中国西北地区陆地水分收支的年代际变化特征［J］. 大气科学学报，43(6)，953-966.
29.赵家臻,王爱慧*,王会军, 2021:中国地区土壤湿度记忆性及其与降水特征变化的关系[J].大气科学, 45(4),799−818.
30.孔祥慧,王爱慧*,毕训强,等. 2021: CAS-ESM模式对欧亚大陆逐日降水特征的数值模拟:物理参数化方案和水平分辨率的影响[J].大气科学, 45(4),725−745.
31.陈说，叶涛，刘苇航，王爱慧，2021：NEX-GDDP 和CMIP5 对青藏高原地区近地面气象场历史和未来模拟的评估与偏差校正[J].高原气象，40（2）,257-271.
六、荣誉获奖:
2024年获得国务院政府特殊津贴
