Xiaoshuang Li

Prof. Xiaoshuang Li

Shaoxing university
+1
orcid

Research Focus & Metrics

Academic Career Length

7Years (2020-Present)

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

Representative Publications

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19 September 2023 in International Journal of Mining Science and Technology
Verified
Journal Article
Open access
Xiaoshuang LiXiaoshuang Li
Xiaoshuang Li
QLQihang Li
Qihang Li
YWYunmin Wang
Yunmin Wang
WLWei Liu
Wei Liu
DHDi Hou
Di Hou
XZXiong Zhang
Xiong Zhang

26 May 2022 in Metals
Verified
Journal Article
Open access
PDF file
SLShui-Quan Lin
Shui-Quan Lin
Guangjin WangGuangjin Wang
Guangjin Wang
文刘文连 刘
文连 刘
BZBing Zhao
Bing Zhao
YSYing-Ming Shen
Ying-Ming Shen
Xiaoshuang LiXiaoshuang Li
Xiaoshuang Li
Tailings ponds are one of the three major production facilities in metal mines. The volume of tailings increases year by year, but the storage capacity of existing tailings ponds is limited. Therefore, tailings dams must become more fine-grained and larger. The potential hazard they represent should not be underestimated. This paper reveals the causes and regional distribution patterns of 342 tailings dam failures globally from 1915 to 2021 through statistical analysis. It was found that tailings pond failures occur almost every year, with an average of 4.4 accidents/year (1947–2021). The frequency has been gradually increasing in recent years, and most tailings pond failures are directly related to heavy rainfall or earthquakes. The frequency of tailings pond failures was significantly higher in Asia (21.3%) and the Americas (57.9%), especially in China (n = 43) and the United States (n = 107). Causes of tailings pond failures differed among regions. Most tailings pond failures in Asia and Europe were related to hydroclimate, while those in South America were mainly triggered by earthquakes. This study will provide theoretical data for the pre-design as well as the safe and stable operation of global tailings ponds, which will help to prevent global tailings pond failures.

24 July 2021 in Rock Mechanics and Rock Engineering
Verified
Journal Article
Closed access
PDF file
Xiaoshuang LiXiaoshuang Li
Xiaoshuang Li
KPKun Peng
Kun Peng
JPJun Peng
Jun Peng
HXHanhua Xu
Hanhua Xu

17 September 2024 in Journal of Rock Mechanics and Geotechnical Engineering
Verified
Journal Article
Open access
Xiaoshuang LiXiaoshuang Li
Xiaoshuang Li
QLQihang Li
Qihang Li
YWYunmin Wang
Yunmin Wang
WLWei Liu
Wei Liu
DHDi Hou
Di Hou
CZChun Zhu
Chun Zhu

5 November 2022 in Journal of Petroleum Science and Engineering
Verified
Journal Article
Closed access
TQTang Qiongiqong
Tang Qiongiqong
YCYuanbo Chen
Yuanbo Chen
RJRui Jia
Rui Jia
WGWei Guo
Wei Guo
WCWeiqiang Chen
Weiqiang Chen
YZYu Zhou
Yu Zhou

5 May 2022 in Lithosphere
Verified
Journal Article
Open access
PDF file
Xiaoshuang LiXiaoshuang Li
Xiaoshuang Li
JPJun Peng
Jun Peng
YXYulin Xie
Yulin Xie
QLQihang Li
Qihang Li
TZTao Zhou
Tao Zhou
WZWenbo Zheng
Wenbo Zheng
In this paper, the effect of high temperature on the mechanical properties of quartz-rich sandstone was studied by true triaxial pressure experiment. The density, P-wave velocity, elastic modulus, peak stress, peak strain, and failure mode of quartz-rich sandstone before and after heat treatment were analyzed and compared. It was found that the color of quartz-rich sandstone changes greatly when heated to 500°C. In detail, the brittleness of quartz-rich sandstone gradually decreased and the ductility increased at high temperature. Although the density, P-wave velocity, and elastic modulus fluctuate, they showed a decreasing trend as a whole. In addition, the peak stress and peak strain showed an overall upward trend with the increase of temperature, and 500°C was the high-temperature failure threshold of quartz-rich sandstone. The failure mode of quartz-rich sandstone at high temperature changes from shear failure to shear-tension combined failure, and the number of cracks increases. Therefore, these research results can provide a certain reference for high-temperature underground operation.