Zhongsheng Chen

Dr. Zhongsheng Chen

China West Normal University
orcid

Research Focus & Metrics

Academic Career Length

15Years (2012-Present)

(Calculated once Scilit publication data is synced: current year − year of first publication + 1)

Representative Publications

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1 January 2016 in Atmospheric Research
Verified
Journal Article
Closed access
BLBaofu Li
Baofu Li
YCYaning Chen
Yaning Chen
Zhongsheng ChenZhongsheng Chen
Zhongsheng Chen
HXHeigang Xiong
Heigang Xiong
LLLishu Lian
Lishu Lian

16 April 2012 in Hydrological Processes
Verified
Journal Article
Closed access
PDF file
HWHuaijun Wang
Huaijun Wang
Ya-ning ChenYa-ning Chen
Ya-ning Chen
Zhongsheng ChenZhongsheng Chen
Zhongsheng Chen

2 September 2012 in Theoretical and Applied Climatology
Verified
Journal Article
Closed access
PDF file
BLBaofu Li
Baofu Li
Ya-ning ChenYa-ning Chen
Ya-ning Chen
XSXun Shi
Xun Shi
Zhongsheng ChenZhongsheng Chen
Zhongsheng Chen
WLWeihong Li
Weihong Li

28 March 2019 in International Journal of Climatology
Verified
Journal Article
Open access
PDF file
HWHuaijun Wang
Huaijun Wang
YCYaning Chen
Yaning Chen
YPYingping Pan
Yingping Pan
Zhongsheng ChenZhongsheng Chen
Zhongsheng Chen
ZRZhiguo Ren
Zhiguo Ren
Drought occurs more frequently in the context of climate change and threatens water security worldwide. An appropriate fitting distribution is crucial for accurately identifying drought using drought indices. Here, seven two‐parameter distributions (Gamma, Gumbel, Logistic, Log–Logistic, Log‐normal, Normal, and Weibull) and four distributions (general logistic, generalized extreme value, Normal, and Pearson Type III) are applied to calculate the standardized precipitation index (SPI) and standardized precipitation evapotranspiration index (SPEI), respectively, to choose the most appropriate fit for the 541 stations in China. The results show that, in most cases, Gamma and general logistic were the best distributions for SPI and SPEI, respectively. Nevertheless, we noted that Pearson Type III and generalized extreme value also fit the SPEI series well, indicating the importance of distribution fitting assessment for various regions. The annual and seasonal drought evolutions across China were clarified, with drought decreasing significantly in western Northwest China (annually and each season), northern North China (spring and winter), the Tibetan Plateau (spring), and the lower reaches of the Yangtze River (winter) and increasing mainly in South China (spring) and western South China (summer and autumn). The intensity, duration and severity of light, moderate, and severe drought were also detected; the results suggest that drought in China is mainly concentrated around the changes in light and moderate drought. Additionally, we assessed the sensitivity of drought evolution to various meteorological variables. The most sensitive variable in South China, North China and the Tibetan Plateau is precipitation, followed by wind speed, temperature, relative humidity, and sunshine duration; in Northwest China, the order is wind speed, precipitation, temperature, relative humidity, and sunshine duration. Furthermore, the correlation results also indicate that the drought evolution is affected by the multivariate ENSO index, while the influencing characteristics are different in various seasons and regions. The results in this paper contribute to drought mitigation and the effective utilization of water resources in China.


1 November 2012 in Journal of Hydrology
Verified
Journal Article
Closed access
XHXing-Ming Hao
Xing-Ming Hao
CLCong Li
Cong Li
BGBin Guo
Bin Guo
JMJian-Xin Ma
Jian-Xin Ma
MAMubarek Ayup
Mubarek Ayup
Zhongsheng ChenZhongsheng Chen
Zhongsheng Chen