2026
Zhang, Y. J., Yin, Z. C., Tian, W. S., He, S. P., Hsu, P. C., 2026. Stratospheric precursor induces wintertime phase reversal of the “warm Arctic-cold Eurasia” pattern, Nature Communications, 17, 3284.
张艺佳,尹志聪,许天宝, 2026.西西伯利亚春季野火的预测, 大气科学学报, 49(1): 168–178.
Sun, Y. H., Yin, Z. C., Zhang, Y. J., 2026. Large proportions of surface ozone and premature mortality due to a stratospheric intrusion event in North China, International Journal of Climatology, 46: e70322.
Yin, Z. C., Ma, X. Q., Zhang, Y. J., Xu, T., B., 2026. Impacts of the North Atlantic SST on the compound extreme of south-rainstorm and north-heatwave in east of China during early summer 2022, Atmospheric Research, 330: 108582.
2025
尹志聪, 张艺佳, 许天宝, 2025. “暖北极-冷欧亚”模态的变化及其气候环境效应, 大气科学, 49(4): 1011−1019.
2024
Zhang, Y. J., Yin, Z. C., Song, X. L., Wang, H. J., 2024. Subtropical SST improved the understanding of the subseasonal reversal of surface air temperature in winter over the mid-high latitudes of Asia, Atmospheric Research, 299: 107208.
Yin, Z. C., Zhang, Y. J., He, S. P., Wang, H. J., 2024. Warm Arctic-Cold Eurasia pattern helps predict spring wildfires burned area in West Siberia, Nature Communications, 15: 9041.
Xu, T. B., Yin, Z. C., Zhang, Y. J., Zhou, B. T., 2024. Identification of shortcomings in simulating the subseasonal reversal of the warm Arctic–cold Eurasia pattern, Geophysical Research Letters, 51(3): e2023GL105430.
王会军, 戴永久, 杨崧, 李天明, 罗京佳, 尹志聪, 段明铿, 周放, 张艺佳, 2024. 气候系统预测:基础创新和集成应用, 大气科学学报, 47(2):161–172.
2023
Zhang, Y. J., Yin, Z. C., Wang, H. J. 2023. Subseasonal transition of Barents-Kara sea-ice anomalies in winter related to the reversed warm Arctic-cold Eurasia pattern, Atmospheric and Oceanic Science Letters, 100392.
Yin, Z. C., Zhang, Y. J., Zhou, B. T., Wang, H. J., 2023. Subseasonal variability and the “Arctic warming-Eurasia cooling” trend, Science Bulletin, 68(5): 528–535.
Song, X. L., Yin, Z. C., Zhang, Y. J., 2023. Subseasonal reversals of winter surface air temperature in mid-latitude Asia and the roles of westward-shift NAO, Environmental Research Letters, 18: 034018.
Yin, Z. C., Li, Y. Y., Zhang, Y. J., Wang, H. J., 2023. Evident Differences of Haze Days between December and January in North China and Possible Relationships with Preceding Climate Factors, International Journal of Climatology, 43(1): 438–455.
尹志聪, 霍芊伊，麻晓晴，张艺佳，马小会，王会军, 2023. 触发2023年春季中国北方沙尘暴的沙源累积和天气扰动机制, 大气科学学报, 46(3):321–331.
2022
Zhang, Y. J., Yin, Z. C., Zhou B. T., Wang, H. J., 2022. Possible relationship between January “Warm Arctic-Cold Eurasia” and February haze in North China, Journal of Climate, 35 (13): 4115–4130.
Yin, Z. C., Wan, Y., Zhang, Y. J., Wang, H. J., 2022. Why super sandstorm 2021 in North China? National Science Review, 9(3): nwab165.
2021
Zhang, Y. J., Yin, Z. C., Wang, H. J., He, S. P., 2021. 2020/21 Record-breaking cold waves in east of China enhanced by the 'Warm Arctic-Cold Siberia' pattern, Environmental Research Letters, 16: 094040.
Yin, Z. C., Zhang, Y. J., Wang, H. J., Li, Y. Y., 2021. Evident PM2.5 drops in the east of China due to the COVID-19 quarantine measures in February, Atmospheric Chemistry Physics, 21(3): 1581–1592.
2020
Zhang, Y. J., Yin, Z. C., Wang, H. J., 2020. Roles of climate variability on the rapid increases of early winter haze pollution in North China after 2010, Atmospheric Chemistry Physics, 20(20): 12211–12221.
Yin, Z. C., Zhang, Y. J., 2020. Climate anomalies contributed to the rebound of PM2.5 in winter 2018 under intensified regional air pollution preventions, Science of the Total Environment，726: 138514.
