教育经历 1991.9 1995.7 大连理工大学 工程力学 学士 1995.9 1998.3 大连理工大学 实验力学 硕士 1998.3 2001.6 大连理工大学 工程力学 博士 工作经历 2001.6 至今 大连理工大学 教师

计算颗粒力学 高性能力学计算 极地海洋工程 铁路道床 航空航天着陆过程

[1]卫志军.流体砰击过程中水弹性统计特性研究[A],2021 [2]翟必垚.基于离散元方法与水动力学耦合的河冰动力学模型[J],水利学报,2021,51(5):617-630 [3]王键伟.冰区航行中船舶结构冰载荷的现场测量与反演方法研究进展[J],力学进展,2021,50:2020200- [4]刘璐.破冰船引航下极地船舶结构冰荷载的离散元分析[J],水利水运工程学报,2021,3:1-11 [5]李勇俊.细小颗粒对道砟材料剪切性能影响的试验研究[J],实验力学,2021,35(6):985-993 [6]王嗣强.Construction of irregular particles with superquadric equation in DEM[J],Theoretical and Applied Mechanics Letters,2021,10:68-73 [7]卫志军.An artificial intelligence segmentation method for recognizing the free surface in a sloshing tan...[J],Ocean Engineering,2021 [8]Oleg Konovalov.Modified virtual internal bond model based on deformable Voronoi particles[J],Theoretical and Applied Mechanics Letters,2021,10:87-91 [9]Michael Zhuravkov.Modeling of Deformation Processes in Rock Massif in the Vicinity of Underground Goafs Taking into...[J],Theoretical and Applied Mechanics Letters,2021,10:92-97 [10]王嗣强.GPU-based Parallel Algorithm for Super-Quadric Discrete Element Method and Its Applications for N...[J],Advances in Engineering Software,2021,151:102931- [11]王帅霖.A coupled discrete-finite element method for ice-induced vibrations of conical jacket platform wi...[J],International Journal of Computational Methods,2021,17(4):1850147- [12]李勇俊.基于球形颗粒几何排列的离散元试样高效生成方法[J],应用力学学报,2021,37(2):469-476 [13]Wang, Siqiang.Interaction between super-quadric particles and triangular elements andits application to hoppe...[J],POWDER TECHNOLOGY,2021,339:534-549 [14]Ji, Shunying,Wang, Shuailin.A Coupled Discrete-Finite Element Method for the Ice-Induced Vibrations of a Conical Jacket Pla...[J],INTERNATIONAL JOURNAL OF COMPUTATIONAL METHODS,2020,17(4) [15]Fu, Zhuo-Jia,Xie, Zhuo-Yu,Ji, Shun-Ying,Tsai, Chia-Chang,Li, Ai-Lun.Meshless generalized finite difference method for water wave interactions with multiple-bottom-...[J],OCEAN ENGINEERING,2020,195 [16]孔帅,季顺迎.基于广义接触模型的离散元方法及其对船体冰载荷的分析[J],海洋工程,2020,38(3):102-112 [17]崔洪宇,胡大士,孔帅,季顺迎.基于正则化方法的雪龙号破冰船冰载荷反演的研究[J],中国造船,2020,61(1):109-119 [18]Ji, Shunying,Wang, Siqiang,Peng, Zheng.Influence of external pressure on granular flow in a cylindrical silo based on discrete element...[J],POWDER TECHNOLOGY,2019,356:702-714 [19]Wang, Shuai-Lin,Liu, She-Wen,Ji, Shun-Ying.Coupled discrete-finite element analysis for ice-induced vibration of conical jacket platform bas...[J],Gongcheng Lixue/Engineering Mechanics,2019,36(10):28-39 [20]Ji, Shunying,Chen, Xiaodong,Liu, Lu.Coupled DEM-SPH Method for Interaction between Dilated Polyhedral Particles and Fluid[J],MATHEMATICAL PROBLEMS IN ENGINEERING,2019,2019 [21]朱红日,季顺迎,刘璐.基于Voronoi切割算法的碎冰区构造及离散元分析[J],计算力学学报,2019,36(4):454-463 [22]刘璐,季顺迎.基于扩展多面体包络函数的快速接触搜索算法[J],中国科学:物理学 力学 天文学,2019,06:13-27 [23]梁绍敏,王永滨,季顺迎.返回舱着陆姿态和动力响应的DEM-FEM耦合分析[J],计算机辅助工程,2019,28(4):1-8,14 [24]龙雪,宋础,季顺迎,王跃方.锥角对锥体结构抗冰性能影响的离散元分析[J],海洋工程,2018,36(6):92-100 [25]陈晓东,王安良,季顺迎.海冰在单轴压缩下的韧-脆转化机理及破坏模式[J],中国科学:物理学 力学 天文学,2018,12:24-35 [26]龙雪,季顺迎,王跃方.红沿河核电站取水口海冰堆积特性的离散元分析[J],海洋工程,2018,36(3):51-58,68 [27]王嗣强,季顺迎.基于超二次曲面的颗粒材料缓冲性能离散元分析[J],物理学报,2018,67(9):196-208 [28]季顺迎,雷瑞波,李春花,蔡柯."雪龙"号科考船在冰区航行的船体振动测量研究[J],极地研究,2017,29(4):427-435 [29]王帅霖,季顺迎.锥体导管架海洋平台冰激振动的DEM-FEM耦合分析及高性能算法[J],海洋学报（中文版）,2017,39(12):98-108 [30]严颖,赵春发,李勇俊,季顺迎.铁路道砟破碎特性的离散元分析[J],计算力学学报,2017,34(5):615-622 [31]马国军,马红艳,季顺迎.力学相关成果引入材料力学教学的探索与实践[J],力学与实践,2017,39(5):499-502 [32]梁绍敏,王永滨,季顺迎.基于离散元方法的月球着陆器冲击月壤过程分析[J],航天返回与遥感,2017,38(4):55-63 [33]杨坤,翟必垚,季顺迎.喷雾冻结冰弯曲强度与单轴压缩强度试验研究[J],中国民航大学学报,2017,35(4):16-20 [34]李锡夔,季顺迎,段庆林.国际离散元方法研究进展[J],国际学术动态,2017,04:21-23 [35]王嗣强,季顺迎.考虑等效曲率半径影响的超二次曲面离散元非线性接触模型[A],2017,10 [36]杨坤,陈晓东,周宏奎,陈卓,季顺迎.颗粒冰与钛合金冻结强度的剪切试验分析[J],计算力学学报,2017,34(3):379-383 [37]Chen, Xiaodong,Hoyland, Knut,Ji, Shunying.The determination of heat transfer coefficient on water-ice surface in a free convection[A],2017 [38]Liu, Lu,Ji, Shunying.Bond model of dilated polyhedral DEM and its applications in sea ice simulation[A],2017 [39]狄少丞,季顺迎,薛彦卓.船舶在平整冰区行进过程的离散元分析[J],海洋工程,2017,35(3):59-69 [40]Tang, Hongxiang,Zhang, Xing,Ji, Shunying.Discrete element analysis for shear band modes of granular materials in triaxial tests[J],PARTICULATE SCIENCE AND TECHNOLOGY,2017,35(3):277-290