| 论     文     著     作 | 近年发表的代表性论文:(*   Corresponding author)      [1]   Li Y L, Yang Z R, Wu W P. Analysis   of impact dynamic properties of lunar water ice simulant based on FDM-DEM coupling   method. Advanced Powder Technology, 2024, 35:104417.    [2]   Li Y L, Yang Z R, Wu W P. DEM   analysis of the dynamic characteristics of QH-E lunar soil simulant under   cyclic triaxial tests. Acta Astronautica, 2024, 219: 329-339.      [3]   Li Y L, Wu W P, Soup D, Eckert J.   Effects of void shape and location on the fracture and plastic   deformation of Cu (crystalline) /Cu64Zr36 (amorphous) composites. Journal   of Materials Research and Technology, 2023, 24: 4177-4189.      [4]   Chen B, Li Y L, Soup D, Eckert J., Wu W P. Molecular   dynamics study of shock-induced deformation phenomena and spallation failure   in Ni-based single crystal superalloys. International Journal of   Plasticity, 2023, 162:103539.      [5]   Wu W P, Ding Z J, Li Y L*, Yu C, Kang G. Molecular   dynamics simulation of thermomechanical fatigue properties of Ni-based single   crystal superalloys. International Journal of Fatigue, 2023, 173:   107667.      [6]   Li Y L, Wu W P, Chu X H, Zou W L.   Effects of stress paths on triaxial compression mechanical properties of QH-E   lunar soil simulant by DEM simulation. Granular Matter, 2020, 22:   32-43.      [7]   Li Y L, Zou W L, Wu W P, Chen L,   Chu X H. Triaxial compression tests of QH-E lunar soil simulant under   constant mean principal stress path using discrete element method   simulations. Granular Matter, 2018, 20: 79-91.   [8]   Li Y L, Zou W L, Wu W P, Chen L. Discrete element modeling of   strength properties and failure modes of QH-E lunar soil simulant at low   confining stresses. Civil   Engineering Journal, 2018, 2: 211-226.       [9]   Li Y L, Wu W P, Li N L, Qi Y. Cohesive zone representation of   crack and void growth in single crystal nickel via molecular dynamics   simulation. Computational Materials Science, 2016, 104: 212-218.  [10]   Wu W P, Li S Y, Li Y L*. An   anisotropic elastic-plastic model for predicting the rafting behavior in   Ni-based single crystal superalloys. Mechanics of Materials, 2019, 132:9-17. |