承担项目: [1] 国家自然科学基金面上项目:考虑极化涡旋结构大范围畴变的低维铁电材料断裂力学研究,参与 [2] 国家自然科学基金面上项目:辐照-热-力环境下弥散型核燃料的宏-细观断裂相场法研究,参与 [3] 中核集团“十三五”预研项目:****裂纹扩展分析理论与试验研究,参与 [4] 中核集团“十四五”预研项目: ****冲击载荷下的断裂失效仿真分析技术研究,参与 [5] “两机”重大专项相关项目:复合材料振动分析及疲劳性能研究,参与 代表性论文(专著、教材): [1] Zhu Shuai, Yu Hongjun, Hao Liulei, et al. Exploring the dynamic fracture performance of epoxy/cement based piezoelectric composites with complex interfaces. Composite Structures, 305:116497, 2022. (TOP期刊) [2] Zhu Shuai, Yu Hongjun, Hao Liulei, et al. Influences of magneto-electro-elastic layer properties of piezoelectric/piezomagnetic composites on dynamic intensity factors. Applied Mathematical Modelling, 120:535-557, 2023. (TOP期刊) [3] Zhu Shuai, Yu Hongjun, Guo Licheng. Analysis of an interfacial crack between two nonhomogeneous piezoelectric materials using a new domain-independent interaction integral. Composite Structures, 331:117873, 2024. (TOP期刊) [4] Zhu Shuai, Yu Hongjun, Wu Xiaorong, et al. Interaction integral method for crack-tip intensity factor evaluations of magneto-electro-elastic materials with residual strain. Engineering Fracture Mechanics, 258:108084, 2021. (TOP期刊) [5] Zhu Shuai, Yu Hongjun, Wang Biao, et al. A domain-independent interaction integral for dynamic fracture in nonhomogeneous magneto-electro-elastic materials. Engineering Fracture Mechanics. 282:109162, 2023. (TOP期刊) [6] Zhu Shuai, Yu Hongjun, Zhang Yingbin, et al. Generalized dynamic domain-independent interaction integral in the transient fracture investigation of magneto-electro-elastic composites. Engineering Fracture Mechanics.292:109653, 2023. (TOP期刊) [7] Zhu Shuai, Yu Hongjun, Hao Liulei, et al. Interaction integral method for thermal fracture of nonhomogeneous magneto-electro-elastic materials. European Journal of Mechanics A-Solids, 98:104871, 2023. [8] Zhu Shuai, Yu Hongjun, Wu Xiaorong, et al. Dynamic fracture analysis in nonhomogeneous piezoelectric materials with a new domain-independent interaction integral. Theoretical and Applied Fracture Mechanics. 122:103614, 2022. [9] Zhu Shuai, Liu Haitao. Finite element analysis of the three-dimensional crack and defects in piezoelectric materials under electro-mechanical coupling field. Journal of Intelligent Material Systems and Structures, 32(15):1662-77, 2021. [10] Yu Hongjun, Zhu Shuai, Ma Haoyu, et al. Interface crack analysis of piezoelectric laminates considering initial strain. International Journal of Mechanical Sciences, 305:109104, 2024. (TOP期刊) [11] Yan Hongru, Yu Hongjun, Zhu Shuai, et al. Nonlinear properties prediction and inverse design of a porous auxetic metamaterial based on neural networks. Thin-Walled Structures, 197:111717, 2024. (TOP期刊) [12] Hao Liulei, Yu Hongjun, Zhu Shuai, et al. A mode-adjustable phase-field model for brittle fracture by regulating distortional crack driving energy. Engineering Fracture Mechanics. 276:108920, 2022. (TOP期刊) [13] Yan Hongru, Yu Hongjun, Zhu Shuai, et al. Machine learning based framework for rapid forecasting of the crack propagation [J]. Engineering Fracture Mechanics. 2024; 307. (TOP期刊) [14] Hao Liulei, Yu Hongjun, Shen Zhen, Zhu Shuai, et al. Determination of mode-II critical energy release rate using mixed-mode phase-field model. Theoretical and Applied Fracture Mechanics. 125:103840, 2023. [15] Shen Zhen, Yu Hongjun, Guo Licheng, Hao Liulei, Zhu Shuai, Huang Kai. A modified 3D G-criterion for the prediction of crack propagation under mixed mode I-III loadings. Engineering Fracture Mechanics. 281:109082, 2023. (TOP期刊) [16] Liu Haitao, Zhu Shuai. Dynamic analysis of two collinear permeable Mode-I cracks in piezoelectric materials based on non-local piezoelectricity theory[J]. Multidiscipline modeling in materials and structures, 15(6):1274-1293, 2019. 授权专利: [1] 求解压电压磁复合材料热断裂问题的相互作用积分方法[P]. 发明专利,授权号:ZL202210551909.0. [2] 求解磁电弹性材料热断裂问题的相互作用积分方法[P]. 发明专利,授权号:ZL202210551418.6. [3] 一种求解磁电弹性材料的界面裂纹尖端场的解析法[P]. 发明专利,授权号:ZL202310428519.9. [4] 可控间距及面积占比的带壳颗粒随机分布的生成方法[P]. 发明专利,授权号:ZL202310534409.0. [5] 求解压电复合材料动态断裂强度因子的相互作用积分方法[P]. 发明专利,授权号:ZL202210551419.0. [6] 一种求解回转体裂纹应力强度因子的相互作用积分方法[P]. 发明专利,授权号:ZL202311614435.0. [7] 一种包含微结构效应的断裂相场仿真方法[P]. 发明专利,授权号:ZL202310441617.6. [8] 一种自相似层级组装的负泊松比结构设计方法[P]. 发明专利,授权号:ZL 2023 1 0177866.9. [9] 一种考虑拉扭耦合效应的动态断裂相场计算方法[P]. 发明专利,授权号:ZL202311317591.0. 学术会议: [1] 15th World Congress on Computational Mechanics (WCCM-XV) & 8th Asian Pacific Congress on Computational Mechanics (APCOM-VIII) (第十五届世界计算力学大会&第八届亚太计算力学大会),日本横滨,2022.07.31-08.05. [2] 15th International Conference on Fracture (ICF15) (第十五届国际断裂力学大会),美国亚特兰大,2023.06.11-06.16. [3] The 6th International Conference on Materials and Reliability (第六届国际材料与可靠性会议),日本山口,2022.12.07-12.09. [4] International Conference on Intelligent Material Design (世界智能材料设计国际会议), 浙江杭州,2023.04.28-04.30. [5] 第二十一届全国疲劳与断裂学术会议,山东青岛,2022.08.21-08.24. [6] 中国力学大会-2021+1,四川成都,2022.11.04-11.10. [7] 第三届全国力学博士生学术论坛, 辽宁大连,2023.01.07-01.08. [8] 第四届全国热应力大会,重庆,2023.03.31-04.02. [9] 第五届东北地区力学博士生论坛,黑龙江哈尔滨,2023.07.22-07.23. [10] 中国计算力学大会2023,辽宁大连,2023.08.20-08.23. [11] 第一届中国智能材料与结构系统大会,江苏苏州,2023.10.27-10.29. [12] 第十四届全国爆炸力学学术会议,广西南宁,2023.11.17-11.19. [13] 全国固体力学学术会议,江苏南京,2024.03.29-04.01. [14] 第五届中国国际复合材料科技大会,新疆乌鲁木齐,2024.07.25-07.28. [15] 全国冲击动力学前沿论坛,湖北宜昌,2024.09.06-09.08. 获奖情况: [1] 2023年10月,博士研究生国家奖学金 [2] 2024年05月,黑龙江省“优秀毕业生” [3] 2024年05月,哈尔滨工业大学“优秀毕业生” [4] 2024年06月,哈尔滨工业大学优秀博士学位论文提名 |