研究兴趣包括ENSO动力学、极地-热带相互作用、季风动力学、台风动力学、极端气候事件归因等。在Science, Nature Geoscience, Nature Communications等期刊累计发表论文200余篇。连续多年入选全球前2%顶尖科学家名单、气候变化研究领域全球最具影响力1000位科学家名单。获中国气象学会涂长望青年气象科技奖、中国科学院大气物理研究所先进工作者、学笃风正创新贡献奖和科技创新贡献奖、优秀博士学位论文奖、中国科学院院长奖优秀奖、朱李月华优秀博士生奖和北京市优秀博士毕业生奖。主持过国家青年科学基金B类和C类项目、面上项目、中国博士后科学基金面上资助和特别资助等多项国家级科研项目。

学术任职情况:

海洋气象学报青年编委，2025年至今

The Innovation青年编委，2025年至今

干旱区研究青年编委，2025年至今

Journal of Meteorological Research编委，2025年至今

气象学报编委，2025年至今

气象与环境学报青年编委，2024年至今

高原气象青年编委，2023年至今

国际气象学与大气科学协会中国委员会青年工作组，2022年至今

获奖情况:

2026年 入选全球前2%顶尖科学家名单

2026年 Advances in Atmospheric Sciences优秀审稿人

2026年 IOP Outstanding Reviewer Awards

2025年 第一季度Wiley中国高贡献作者奖

2025年 入选全球前2%顶尖科学家名单

2025年 《中国科学：地球科学》《Science China Earth Sciences》优秀审稿人

2025年 中国科学院大气物理研究所科技创新贡献奖

2024年 入选全球前2%顶尖科学家名单

2021年 入选气候变化研究领域全球最具影响力的1000位科学家名单

2021年 中国科学院大气物理研究所学笃风正创新贡献奖

2021年 中国科学院大气物理研究所先进工作者

2017年 中国气象学会涂长望青年气象科技奖

2016年 中国科学院大气物理研究所优秀博士学位论文

2015年 北京市优秀博士毕业生

2015年 朱李月华优秀博士生奖

2014年 中国科学院院长奖优秀奖

2014年 博士研究生国家奖学金

2014年 中国科学院大学三好学生标兵

2013年 博士研究生国家奖学金

2013年 中国科学院大学三好学生标兵

2011年 中国科学院研究生院三好学生

2010年 中山大学优秀本科毕业生

指导/协助指导学生情况：

[1] 黄汝萍，硕士研究生，就业单位：中国气象局广州热带海洋气象研究所，获国家青年科学基金C类项目资助，已晋升副研究员

[2] 林明宇，硕士研究生，就业单位：中国气象局公共气象服务中心

[3] 赵威，博士研究生，就业单位：国家气象信息中心，已晋升高级工程师

[4] 阿如哈斯，博士研究生，就业单位：德国马普所，博士后，获博士研究生国家奖学金

[5] 郑玉琼，博士研究生，就业单位：云南大学，讲师，获国家青年科学基金C类项目资助

[6] 程欣，博士研究生，就业单位：内蒙古赤峰大学，讲师，获博士研究生国家奖学金，获国家青年科学基金C类项目资助

[7] 王志凯，博士研究生，就业单位：北京大学，博士后

论文发表：

[113] Chen, Y., W. Chen*, S.-F. Chen*, et al. 2026: Role of atmospheric circulation and anthropogenic forcing in the extreme 2025 European summer heatwave, Environmental Research Letters, https://doi.org/10.1088/1748-9326/aeb1e0.

[112] Piao, J.-L, J.-S. Kug, W. Chen, M.-K. Sung, S.-F. Chen, Z.-K Wang, Q.-Y. Cai, D.-B. Lee, 2026: An abrupt shift towards a hotter and drier climate regime in the Western Eurasian Steppe. Nature Geoscience, https://doi.org/10.1038/s41561-026-02125-8.

[111] Ju, X.-M., S.-F. Chen*, et al. 2026: Atlantic Multidecadal Oscillation drives multidecadal changes in the impact of Indian Ocean Dipole on El Niño-Southern Oscillation, Geophysical Research Letters, 53 (14), e2026GL124111.

[110] Ju, X.-M., S.-F. Chen*, et al. 2026: Strengthened coupling between the eastern and western poles of the Indian Ocean Dipole since the early 1980s: Roles of tropical cross-basin interactions, Climate Dynamics, 64 (11), 452.

[109] Wang, L.-Y., W. Chen*, S.-F. Chen*, et al. 2026: Mechanisms of the Record-Breaking Winter-Spring Drought over South China in 2024-2025, Environmental Research Letters, 21 (13), 134032.

[108] Ren, Z., W. Chen, S.-F. Chen*, et al. 2026: Fading influence of El Niño-Southern Oscillation on East Asian summer monsoon northern boundary after the late-1980s, Climate Dynamics, 64(6), 257.

[107] Zhu, Y., Z. Wang, X. Cao, L. Wang, W. Chen, R. Wu*, and S.-F. Chen*, 2026: Strengthening of the out-of-phase relationship between Eurasian winter and summer temperature anomalies since the early 1990s, Atmospheric Research, 109057.

[106] Zhu, S.-H, Y. Liu, P. I. Palmer, L. Feng, D.-X, Yang, S.-F. Chen, M. Sasakawa, R. J. Parker, H. Boesch, J.-J. Cao, O. Hermansen, and S. M. Platt, 2026: Decadal doubling of Siberian methane emissions due to warming-induced fires and methanogenesis, Science, 393 (6811), 615-621.

[105] Cai, Q., W. Chen, Y. Yu, S.-F. Chen, et al. 2026: The Silent Expansion of Fire Activity in Continental Tropical Asia shaped by natural and anthropogenic forces, Nature Communications, 17, 6593.

[104] Chen, Y., W. Chen*, S.-F. Chen*, et al. 2026: Winter North Atlantic tripole sea surface temperature drives following summer synchronous heat waves over Eurasia since the 2000s, Environmental Research Letters, 21, 094024.

[103] Chen, S.-W., S.-F. Chen*, et al., 2026: Distinct impacts of two types of spring north Pacific meridional mode on north Pacific tropical cyclone genesis frequency during the following summer and autumn, Journal of Climate, 39 (10), 2767-2785.

[102] Chen, S.-F., W. Chen, et al. 2026: Enhanced influence of tropical Atlantic variability on East Asian summer monsoon in warming climate, The Innovation Geoscience, 4, 100207.

[101] Zhu, Y., S.-F. Chen*, et al. 2026: Eurasia's transition from colder winters to hotter summers driven by North Atlantic air-sea interaction and Arctic sea ice anomalies, Environmental Research Letters. 21, 034028.

[100] Wang, L.-Y, S.-F. Chen*, et al. 2026: Recent accelerated drying in southwest China dominated by anthropogenic aerosol forcing, Environmental Research Letters, 21, 014035.

[99] Hu, Z., S.-F. Chen*, et al. 2026: Unraveling the Origins of Inter-Model Discrepancies in Simulating the Aleutian-Icelandic Low Seesaw. Journal of Climate, 39 (3), 941-959.

[98] Xu, W., W. Chen*, and S.-F. Chen*, 2025: Recent strengthening of the Western Pacific Hadley Circulation driven by tropical inter-basin sea surface temperature gradients, Geophysical Research Letters, 52 (24), e2025GL119527.

[97] Huang, R., S. Hu, S.-F. Chen*, et al. 2025: Recent enhanced impact of the regional Hadley circulation expansion over western Pacific on increasing frequency of landfalling tropical cyclone, Journal of Climate, 38 (20), 5701-5724.

[96] Chen, S.-F., W. Chen, et al. 2025: Asymmetric impacts of Arctic sea ice anomalies on El Niño-Southern Oscillation, npj Climate and Atmospheric Science, 8 (1), 276.

[95] Zeng, Y., J. Wang, S.-F. Chen, et al. 2025: Subpolar North Atlantic decadal cooling may have aggravated recent Eastern Siberian wildfires, Nature Communications, 17, 185.

[94] Chen, Y., S.-F. Chen*, et al. 2025: Dominant modes and drivers of interannual variability of surface air temperature in boreal summer over Europe, Climate Dynamics, 63 (6), 262.

[93] Zhao, W., S.-F. Chen*, et al. 2025: Mechanisms of persistent extreme rainfall event in North China, July 2023: Role of atmospheric diabatic heating, Journal of Geophysical Research-Atmospheres, 130, 8.

[92] Cheng, X., S.-F. Chen*, et al. 2025: Influence of winter Arctic sea ice anomalies on the following autumn Indian Ocean Dipole development. Journal of Climate, 38, 3109-3129.

[91] Xu, W.-Q., W. Chen*, S.-F. Chen*, et al. 2025: Sources of Inter-model Diversity in the Regional Hadley Circulation over the Western Pacific During Boreal winter. Journal of Climate, 38 (13), 3109-3129.

[90] Ju, X.M., S.-F. Chen*, et al. 2025: Discrepancy in the connection between the Indian Ocean Dipole and following year’s ENSO in coupled climate models. Journal of Climate, 38 (12), 2817-2839.

[89] Ju, X.M., S.-F. Chen*, et al. 2025: Origins of the overestimated Indian Ocean dipole amplitude in current coupled climate models. Climate Dynamics, 63 (4), 180.

[88] Wang, L.-Y., S.-F. Chen*, et al. 2025: Interdecadal Variation of springtime Compound Temperature-Precipitation Extreme Events in China and its association with Atlantic Multidecadal Oscillation and Interdecadal Pacific Oscillation. Journal of Geophysical Research-Atmospheres, 130(2), e2024JD042503.

[87] Chen, S.-F., W. Chen, et al. 2025: Atlantic Multidecadal Variability Controls Arctic-ENSO Connection. npj Climate and Atmospheric Science, 8, 44.

[86] Ren, Z.-X., W. Chen, L. Wang*, S.-F. Chen*, et al. 2025: Comparative analysis of east Asian summer monsoon northern boundary indices: variability, climate anomalies and driving mechanisms. Climate Dynamics, 63(1), 35.

[85] Zheng, Y.-Q, S.-F. Chen*, et al. 2025: Performance and bias of the Community Integrated Earth System Model in simulating the impact of the North Pacific Meridional Mode on the El Niño-Southern Oscillation. Climate Dynamics, 63(1), 22.

[84] Chen, S.-F., W. Chen, et al. 2024: Improved simulation of the influence of the North Pacific Oscillation on El Niño-Southern Oscillation in CMIP6 than in CMIP5 models. Climate Dynamics, 62, 9881-9900.

[83] Chen, S.-F., W. Chen, et al. 2024: Interdecadal Variation in the Impact of Arctic Sea Ice on the El Niño-Southern Oscillation: The Role of Atmospheric Mean Flow. Journal of Climate, 37(21), 5483-5506.

[82] Huang, R.-P., S.-F. Chen*, et al. 2024: Impact of the winter regional Hadley circulation over western Pacific on the frequency of following summer tropical cyclone Landfalling in China. Journal of Climate, 37(13), 3521-3541.

[81] Zheng, Y.-Q., S.-F. Chen*, et al. 2024: The role of the Aleutian Low in the relationship between spring Pacific Meridional Mode and following ENSO. Journal of Climate, 37(11), 3249-3268.

[80] Chen, S.-F., W. Chen, S.-P. Xie, et al. 2024: Strengthened impact of boreal winter North Pacific Oscillation on ENSO development in warming climate. npj Climate and Atmospheric Science, 7, 69.

[79] Cai, Q.-Y., W. Chen*, S.-F. Chen*, et al. 2024: Recent pronounced warming on the Mongolian Plateau boosted by internal climate variability. Nature Geoscience, 17, 181-188.

[78] Wang, Z.-B., Q.-H. Ding, R. Wu, T. Ballinger, B. Guan, D. Bozkurt, D. Nash, I. Baxter, D. Topál, Z. Li, G. Huang, W. Chen, S.-F. Chen, X. Cao, and Z. Chen, 2024: Role of atmospheric rivers in shaping long term Arctic moisture variability. Nature Communications, 15(1), 5505.

[77] Chen, S.-F.*, W. Chen, et al. 2024: Joint impacts of winter North Pacific Oscillation and early spring Aleutian Low intensity on the following winter ENSO. Climate Dynamics, 62 (1), 257-276.

[76] Cheng, X., S.-F. Chen*, et al. 2024: Selective influence of the Arctic Oscillation on the Indian Ocean Dipole and El Niño-Southern Oscillation. Climate Dynamics, 62, 3783-3798.

[75] Cheng, X., S.-F. Chen*, et al. 2024: How does the North Pacific Meridional Mode affect the Indian Ocean Dipole? Climate Dynamics, 62, 3123-3142.

[74] Chen, S.-W., S.-F. Chen*, et al. 2024: The North Pacific Meridional Mode and Its Impact on ENSO in the Second Version of the Chinese Academy of Sciences Earth System Model. Journal of Geophysical Research-Atmospheres, 129(6), e2024JD041761.

[73] Chen, S.-F.*, W. Chen, B. Yu, et al. 2023: Impact of the winter Arctic sea ice anomaly on the following summer tropical cyclone genesis frequency over the western North Pacific. Climate Dynamics, 61(7-8), 3971-3988.

[72] Chen, S.-F., W. Chen, B. Yu, et al. 2023: Enhanced impact of the Aleutian Low on increasing the Central Pacific ENSO in recent decades. npj Climate and Atmospheric Science, 6, 29.

[71] Zheng, Y.-Q., S.-F. Chen*, et al. 2023: A continuing increase of the impact of the spring North Pacific Meridional Mode on the following winter El Niño and Southern Oscillation. Journal of Climate, 36(2), 585-602.

[70] Chen, S.-F.*, W. Chen, et al. 2023: How well can current climate models simulate the connection of the early spring Aleutian Low to the following winter ENSO? Journal of Climate, 36(2), 603-624.

[69] Cheng, X., S.-F. Chen*, et al. 2023: Observed impact of the Arctic Oscillation in boreal spring on the Indian Ocean Dipole in the following autumn and possible physical processes. Climate Dynamics, 61(1-2), 883-902.

[68] Chen, S.-F., W.-J. Shi, et al. 2022: Impact of interannual variation of the spring Somali Jet intensity on the northwest-southeast movement of the South Asian High in the following summer. Climate Dynamics, 60, 1583-1598.

[67] Song, L.-Y., S.-F. Chen*, et al. 2022: Distinct evolutions of haze pollution from winter to following spring over the North China Plain: Role of the North Atlantic sea surface temperature anomalies. Atmos. Chem. Phys., 22, 1669–1688.

[66] Chen, S.-F., and W. Chen, 2022: Distinctive impact of spring AO on the succedent winter El Niño event: sensitivity to AO’s North Pacific component. Climate Dynamics, 58, 235–255.

[65] Zhao, W., S.-F. Chen*, et al. 2022: Distinct impacts of ENSO on haze pollution in Beijing-Tianjin-Hebei region between early and late winters, Journal of Climate, 35, 687–704.

[64] Chen, S.-F., W. Chen, et al. 2022: Impact of internal climate variability on the relationship between spring northern tropical Atlantic SST anomalies and succedent winter ENSO: the role of the North Pacific Oscillation. Journal of Climate, 35, 537–559.

[63] Song, L.-Y., S.-F. Chen*, et al. 2021: The Quantile-Matching approach to improving radar quantitative precipitation estimation in South China. Remote Sensing, 13, 4956.

[62] Huang, R.-P., S.-F. Chen*, et al. 2021: Northern poleward edge of regional Hadley cell over western Pacific during boreal winter: year-to-year variability, influence factors and associated winter climate anomalies. Climate Dynamics, 56, 3643–3664.

[61] Zheng, Y.-Q., W. Chen, and S.-F. Chen*, 2021: Intermodel spread in the impact of the springtime Pacific Meridional Mode on following-winter ENSO tied to simulation of the ITCZ in CMIP5/CMIP6. Geophys. Res. Lett., 48, e2021GL093945.

[60] Aru, H.-S., W. Chen, and S.-F. Chen*, 2021: Is there any improvement in simulation of wintertime Western Pacific teleconnection pattern and associated climate anomalies in CMIP6 comparing with CMIP5 models? Journal of Climate, 34, 8841–8861.

[59] Song, L.-Y., S.-F. Chen*, et al. 2021: Interdecadal change in the relationship between boreal winter North Pacific Oscillation and Eastern Australian rainfall in the following autumn. Climate Dynamics, 57, 3265–3283.

[58] Chen, S.-F.*, R. Wu, and W. Chen, 2021: Influence of North Atlantic sea surface temperature anomalies on springtime surface air temperature variation over Eurasia in CMIP5 models. Climate Dynamics, 57, 2669–2686.

[57] Zhao, W., W. Chen, S.-F. Chen*, et al. 2021: Roles of anthropogenic forcings in the observed trend of decreasing late-summer precipitation over the East Asian transitional climate zone. Sci. Rep., 11, 4935.

[56] Zheng, Y.-Q., W. Chen, S.-F. Chen*, et al. 2021: Asymmetric impact of the boreal spring Pacific Meridional Mode on the following winter El Niño-Southern Oscillation. Int. J. Climatol., 41, 3523–3538.

[55] Chen, S.-F.*, W. Chen, et al. 2021: Performance of the IPCC AR6 models in simulating the relation of the western North Pacific subtropical high to the spring northern tropical Atlantic SST. Int. J. Climatol., 41, 2189–2208.

[54] Chen, S.-F.*, R. Wu, et al. 2021: Weakened impact of autumn Arctic sea ice concentration change on the subsequent winter Siberian High variation around the late-1990s. Int. J. Climatol., 41, E2700–E2717.

[53] Chen, S.-F.*, B. Yu, et al. 2021: The dominant North Pacific atmospheric circulation patterns and their relations to Pacific SSTs: Historical simulations and future projections in the IPCC AR6 models. Climate Dynamics, 56, 701–725.

[52] Zheng, Y.-Q., S.-F. Chen*, et al. 2021: Diverse influences of spring Arctic Oscillation on the following winter El Niño-Southern Oscillation in CMIP5 models. Climate Dynamics, 56, 275–297.

[51] Chen, S.-F.*, and B. Yu, 2020: The seasonal footprinting mechanism in large ensemble simulations of the second generation Canadian Earth System Model: Uncertainty due to internal climate Variability. Climate Dynamics, 55, 2523–2541.

[50] Chen, S.-F.*, and B. Yu, 2020: Projection of winter NPO-following winter ENSO connection in a warming climate: Uncertainty due to internal climate variability. Climatic Change, 162:723–740.

[49] Chen, S.-F., R. Wu, et al. 2020: Why does a colder (warmer) winter tend to be followed by a warmer (cooler) summer over northeast Eurasia? Journal of Climate, 33, 7255–7274.

[48] Chen, S.-F.*, W. Chen, et al. 2020: Impacts of the Atlantic Multidecadal Oscillation on the Relationship of the Spring Arctic Oscillation and the Following East Asian Summer Monsoon. Journal of Climate, 33, 6651–6672.

[47] Chen, S.-F.*, R. Wu, et al. 2020: Coherent interannual variations of springtime surface temperature and temperature extremes between central-northern Europe and  Northeast Asia. J. Geophys. Res. Atmos., 11, e2019JD032226.

[46] Chen, S.-F.*, R. Wu, et al. 2020: Structure and dynamics of a springtime atmospheric wave train over the North Atlantic and Eurasia. Climate Dynamics, 54, 5111–5126.

[45] Wu, R., and S.-F. Chen*, 2020: What leads to persisting surface air temperature anomalies from winter to following spring over the mid-high latitude Eurasia? Journal of Climate, 33, 5861–5883.

[44] Hu, P., W. Chen, S.-F. Chen*, et al. 2020: Extremely early summer monsoon  onset in the South China Sea in 2019 following an El Niño event.  Month Weather Review, 148, 1877–1890.

[43] Chen, S.-F.*, W. Chen, et al. 2020: Potential impact of preceding Aleutian Low variation on the El Niño-Southern Oscillation during the following winter. Journal of Climate, 33, 3061–3077.

[42] Chen, S.-F.*, R. Wu, et al. 2020: Strengthened connection between springtime North Atlantic Oscillation and North Atlantic tripole SST pattern since the late-1980s. Journal of Climate, 35(5), 2007–2022.

[41] Chen, S.-F.*, R. Wu, et al. 2020: Influence of winter Arctic sea ice concentration change on the El Niño-Southern Oscillation in the following winter. Climate Dynamics, 54(1), 741–757.

[40] Chen, S.-F.*, R. Wu, et al. 2020: Recent weakening of the linkage between the spring Arctic Oscillation and the following winter El Niño-Southern Oscillation. Climate Dynamics, 54(1), 53–67.

[39] Chen, S.-F.*, R. Wu, et al. 2020: Projected changes in mid-high latitude  Eurasian  climate during boreal spring in a 1.5C and 2C warmer world. Int. J. Climatol., 40, 1851–1863.

[38] Zhao, W., W. Chen, S.-F. Chen*, et al. 2020: Combined impact of tropical central‐eastern Pacific and North Atlantic sea surface temperature on precipitation variation in monsoon transitional zone over China during August–September. Int. J. Climatol., 40, 1316–1327. 

[37] Chen, S.-F.*, J.-P. Guo, et al. 2020: Temporal disparity of the atmospheric systems contributing to interannual variation of wintertime haze pollution in the North China Plain. Int. J. Climatol., 40, 128–144.

[36] Chen, S.-F.*, R. Wu, et al. 2019: Enhanced impact of Arctic sea ice change during boreal autumn on the following spring Arctic Oscillation since the mid-1990s. Climate Dynamics, 53, 5607–5621.

[35] Chen, S.-F.*, R. Wu, et al. 2019: Projections of climate changes over mid-high latitudes of  Eurasia during boreal spring: uncertainty due to internal variability. Climate Dynamics, 53, 6309–6327.

[34] Chen, S.-F., R. Wu, et al. 2019: Present-day status and  future projection of  spring Eurasian  surface air temperature  in CMIP5 model simulations.  Climate Dynamics, 52, 5431–5449.

[33] Chen, S.-F.*, R. Wu, et al. 2019: Performance of the CMIP5 models in simulating the Arctic Oscillation during boreal spring. Climate Dynamics, 53, 2083–2101.

[32] Chen, S.-F., R. Wu, et al. 2019: Interannual variability of surface air temperature over mid-high latitudes of Eurasia during boreal autumn. Climate Dynamics, 53, 1805–1821.

[31] Huang, R.-P., S.-F. Chen*, et al. 2019: Recent strengthening of the regional Hadley circulation over the western Pacific during boreal spring. Adv. Atmos. Sci., 36, 1251–1264.

[30] Chen, S.-F.*, and L.-Y. Song, 2019: The leading interannual variability modes of winter surface air temperature over Southeast Asia. Climate Dynamics, 52, 4715–4734.

[29] Chen, S.-F., J.-P. Guo, et al. 2019: Interannual variation of the spring haze pollution over the North China Plain: Roles of atmospheric circulation and sea surface temperature. Int. J. Climatol., 39, 783–798.

[28] Zhao, W., W. Chen, S.-F. Chen*, et al. 2019: Interannual variations of precipitation over the monsoon transitional zone in China during August-September:  Role of sea surface  temperature  anomalies  over the tropical Pacific and North Atlantic. Atmos. Sci. Lett., 20, E872.

[27] Zhao, W., S.-F. Chen*, et al. 2019: Interannual variations of the rainy season withdrawal of the monsoon transitional zone in China. Climate Dynamics, 53, 2031–2046.

[26] Chen, S.-F.*, L.-Y. Song, and W. Chen, 2019: Interdecadal Modulation of AMO on the Winter North Pacific Oscillation−Following Winter ENSO Relationship. Adv. Atmos. Sci., 36, 1393–1403.

[25] Chen, S.-F., R. Wu, et al. 2018: Combined influence of the Arctic Oscillation and the Scandinavia pattern on spring surface air temperature variations over Eurasia. J. Geophys. Res. Atmos., 123, 9410–9429.

[24] Chen, S.-F., W. Chen, and B. Yu, 2018: Modulation of the relationship between spring AO and the subsequent winter ENSO by the preceding November AO. Sci. Rep., 8, 6943.

[23] Chen, S.-F., R. Wu, W. Chen, et al. 2018: Enhanced linkage between Eurasian winter and spring dominant modes of atmospheric interannual variability since the early-1990s. Journal of Climate, 31, 3575–3595.

[22] Chen, S.-F.*, R. Wu, and W. Chen, 2018: A strengthened impact of November Arctic oscillation on subsequent tropical Pacific sea surface temperature variation since the late-1970s. Climate Dynamics, 51, 511–529.

[21] Chen, S.-F.*, and R. Wu, 2018: Impacts of winter NPO on subsequent winter ENSO: sensitivity to the definition of NPO index. Climate Dynamics, 50, 375–389.

[20] Chen, S.-F., and R. Wu, 2018: Impacts of early autumn Arctic sea ice concentration on subsequent spring Eurasian surface air temperature variations. Climate Dynamics, 51, 2523–2542.

[19] Chen, S.-F., R. Wu, and W. Chen, 2018: Modulation of spring northern tropical Atlantic sea surface temperature on the ENSO-East Asian summer monsoon connection. Int. J. Climatol.,38, 5020–5029.

[18] Chen, S.-F.*, and L.-Y. Song, 2018: Definition sensitivity: Impact of winter North Pacific Oscillation on the surface air temperature over Eurasia and North America. Adv. Atmos. Sci., 35, 702–712.

[17] Huang, R.-P., S.-F. Chen*, et al. 2018: Interannual variability of regional Hadley circulation intensity over western Pacific during boreal winter and its climatic impact over Asia-Australia region. J. Geophys. Res. Atmos., 123, 344–366.

[16] Chen, S.-F., and R. Wu, 2017: Interdecadal changes in the relationship between interannual variations of spring north Atlantic SST and Eurasian surface air temperature. Journal of Climate, 30, 3771–3787.

[15] Chen, S.-F., W. Chen, and B. Yu, 2017: The influence of boreal spring Arctic Oscillation on the subsequent winter ENSO in CMIP5 models. Climate Dynamics, 48, 2949–2965.

[14] Song, L.-Y., S.-F. Chen*, et al. 2017: Distinct impacts of two types of La Niña events on Australian summer rainfall. Int. J. Climatol., 37, 2532–2544.

[13] Chen, S.-F.*, R. Wu, W. Chen, et al. 2016: Genesis of westerly wind bursts over the equatorial western Pacific during the onset of the strong 2015-16 El Niño. Atmos. Sci. Lett., 17, 384–391.

[12] Chen, S.-F., R. Wu, et al. 2016: Dominant modes of interannual variability in Eurasian surface air temperature during boreal spring. Journal of Climate, 29, 1109–1125.

[11] Cao, X., S.-F. Chen*, et al. 2016: Intensified impact of northern tropical Atlantic SST on tropical cyclogenesis frequency over the western north pacific after the Late 1980s. Adv. Atmos. Sci., 33, 919–930.

[10] Chen, S.-F., R. Wu, et al. 2015: Influence of the November Arctic Oscillation on the subsequent tropical Pacific sea surface temperature. Int. J. Climatol., 35, 4307–4317.

[9] Chen, S.-F., R. Wu, and W. Chen, 2015: The changing relationship between interannual variations of the North Atlantic Oscillation and northern tropical Atlantic SST. Journal of Climate, 28, 485–504.

[8] Chen, S.-F., W. Chen, and R. Wu, 2015: An interdecadal change in the relationship between boreal spring Arctic Oscillation and the East Asian Summer Monsoon around the early 1970s. Journal of Climate, 28, 1527–1542.

[7] Cao, X., S.-F. Chen*, et al. 2015: On the weakened relationship between spring Arctic Oscillation and following summer tropical cyclone frequency over the western north Pacific: A comparison between 1968–1986 and 1989–2007. Adv. Atmos. Sci., 32, 1319–1328.

[6] Chen, S.-F., B. Yu, and W. Chen, 2015: An interdecadal change in the influence of the spring Arctic Oscillation on the subsequent ENSO around the early 1970s. Climate Dynamics, 44, 1109–1126.

[5] Chen, S.-F.*, B. Yu, and W. Chen, 2014: An analysis on the physical process of the influence of AO on ENSO. Climate Dynamics, 42, 973–989.

[4] Chen, S.-F., K. Wei, W. Chen, and L.-Y. Song, 2014: Regional changes in the annual mean Hadley circulation in recent decades. J. Geophys. Res. Atmos., 119, 7815–7832.

[3] Chen, S.-F., W. Chen, and B. Yu 2014: Asymmetric influence of boreal spring Arctic Oscillation on subsequent ENSO. J. Geophys. Res. Atmos., 119:135–150.

[2] Chen, S.-F., W. Chen, B. Yu, and H. Graf, 2013: Modulation of the seasonal footprinting mechanism by the boreal spring Arctic Oscillation, Geophys. Res. Lett., 40, 6384–6389.

[1] Chen, S.-F.*, W. Chen, and K. Wei, 2013: Recent trends in winter temperature extremes in eastern China and their relationship with the Arctic Oscillation and ENSO. Adv. Atmos. Sci., 30, 1712–1724.

招生专业：

070601-气象学

招生方向：

ENSO动力学、海气相互作用、季风动力学、全球气候变化、极端气候事件归因

招生名额：

2名/年

2022.2－今 中国科学院大气物理研究所，研究员

2018.3－2022.1 中国科学院大气物理研究所，副研究员

2019.6－2019.9  加拿大环境部，高级访问学者

2018.6－2018.9  奥地利气象与地球物理中央研究院，高级访问学者

2015.7－2018.2  中国科学院大气物理研究所，博士后 (导师：吴仁广研究员)

2014.4－2014.6  香港中文大学，助理研究员

2010.9－2015.6 中国科学院大气物理研究所，硕博连读 (导师：陈文研究员) 

2006.9－2010.7 中山大学大气科学系，本科