张嘉振

张嘉振，男，汉族，1961年生，国家级高端人才，现任浙江师范大学杰出教授，博士/硕士生导师。

第五，六，七，八届国际结构材料的疲劳和损伤大会执委（中国地区唯一执委），英国机械工程师协会成员，英国航空工程师协会成员，欧洲先进材料和加工协会工程师协会成员。

此外，张嘉振教授还担任多个国际期刊的审稿人，并在C919大型客机项目中担任结构强度和复合材料高级主任设计师，北京民用飞机研究中心副总设计师（兼职），结构/强度研究团队负责人。^[1]

 断裂力学、复合材料结构设计、航空航天结构设计、航空结构设计自动化、结构疲劳设计

金属增材制造、复合材料结构设计、材料的疲劳及损伤容限设计

（1）英国伯明翰大学材料学院名誉研究员

（2）中国(国际)3D 打印创意设计大赛组委会主任

（3）国际结构材料的疲劳和损伤大会执委

（4）英国机械工程师协会成员

（5）英国航空工程师协会成员

（6）欧洲先进材料和加工协会工程师协会成员

（7）《International Journal of Fatigue》《Engineering Fracture Mechanics》《International Journal of Materials Science and Technology》等多家国际知名科学杂志审稿人

[1]  Zhang J Z（张嘉振） . “A shear band decohesion model for small fatigue crack growth in an ultra-fine grain aluminum alloy”. Engineering Fracture Mechanics, 2000, 65(6): 665-681.

[2]  Zhang J Z, （张嘉振） Zhang J Z, Meng Z X. “Direct high resolution in situ SEM observations of very small fatigue crack growth in the ultra-fine grain aluminium alloy IN 9052”.Scripta Materialia, 2004, 50(6):825-828.

[3]  Zhang J Z, （张嘉振） He X D, Tang H, et al. “Direct high resolution in situ SEM observations of small fatigue crack opening profiles in the ultra-fine grain aluminium alloy”. Materials Science & Engineering A, 2008, 485(1-2):115-118.

[4]  M.D. Halliday, J.Z. Zhang（张嘉振）, P. Poole and P. Bowen. “In situ SEM observations of the contrasting effects of an overload on small fatigue crack growth at two different load ratios in 2024-T351 aluminium alloy”. International Journal of Fatigue, 1997, 19(4):273-282.

[5]  Zhang J Z（张嘉振）, X.D.He and S.Y.Du. “Analyses of the fatigue crack propagation process and stress ratio effects using the two parameter method”. International Journal of Fatigue,2005,27(10-12): 1314-1318.

[6]  J. Z. Zhang（张嘉振） et al. “Crack closure in small fatigue cracks-A comparison of finite element predictions and scanning microscope measurements”. Fatigue & Fracture of Engineering Materials 1997:20.

[7]  J. Z. Zhang（张嘉振）, X.D. He, S. Y. Du. “Elastic–plastic finite element analysis and experimental study of short and long fatigue crack growth”. Engineering Fracture Mechanics, 2001:1591-1605.

[8]  Zhang J Z（张嘉振），Bowen P. “On the finite element simulation of three-dimensional semi-circular fatigue crack growth and closure”. Engineering Fracture Mechanics, 1998, 60(3):341-360.

[9]  J.Z. Zhang （张嘉振）, X.D. He , Y. Sha , S.Y. Du. “The compressive stress effect on fatigue crack growth under tension–compression loading”. International Journal of Fatigue, 2010, 32:361–367.

[10] J.Z. Zhang（张嘉振）, X.D. He , B. Suo , S.Y. Du . “Elastic–plastic finite element analysis of the effect of compressive loading on crack tip parameters and its impact on fatigue crack propagation rate”. Engineering Fracture Mechanics, 2008,75:5217–5228.

[11] J.Z. Zhang（张嘉振）, X.D. He , S.Y. Du . “Analysis of the effects of compressive stresses on fatigue crack propagation rate”. International Journal of Fatigue, 2007,29: 1751–1756.

[12] Jiazhen Zhang（张嘉振）, Xiaodong He, Shanyi Du. A simple engineering approach in the prediction of the effect of stress ratio on fatigue threshold[J]. International Journal of Fatigue, 2003, 25: 935-938.

[13] J. Z. Zhang（张嘉振）, M.D. Halliday , P. Bowen, P. Poole. “Three dimensional elastic-plastic finite element modelling of small fatigue crack growth under a single tensile overload”. Engineering Fracture Mechanics, 1999: 229-251.

[14] J. Zhang（张嘉振）, X.D He , Y. Sha , S.Y. Du. “The compressive stress effect on fatigue crack growth under tension–compression loading”. International Journal of Fatigue,2010,32:361–367.

[15] J. Zhang（张嘉振）, X.D. He , Y. Sha , S.Y. Du. “The compressive stress effect on fatigue crack growth under tension–compression loading”. International Journal of Fatigue,2010,32:361–367.

[16] Bai S , Sha Y , Zhang J（张嘉振） . “The effect of compression loading on fatigue crack propagation after a single tensile overload at negative stress ratios”. International Journal of Fatigue, 2018, 110:162-171.

    [17] Dawei Wang, Huili Han , Bo Sa , Kelin Li , Jujie Yan , Jiazhen Zhang（张嘉振）, Jianguang Liu ,

    Zhengdi He , Ning Wang and Ming Yan. A review and a statistical analysis of porosity in metals

    additively manufactured by laser powder bed fusion[J]. Opto-Electronic Advances Review 2022,

    Vol. 5, No. 10.

[18] Xiping Li, Jiawen He, Zhonglue Hu*, Xin Ye, Sisi Wang, Yuan Zhao, Bin Wang, Yuhui Ou, Jiazhen Zhang* (张嘉振). High strength carbon-fiber reinforced polyamide 6 composites additively manufactured by screw-based extrusion[J]. Composites Science and Technology, 2022, 229: 109707. (共同通讯)

[19] Xin Ye, Zhonglue Hu, Xiping Li, Sisi Wang, Bin Wang, Yuan Zhao, Jiawen He, Jianguang Liu, Jiazhen Zhang* （张嘉振）. Effect of annealing and carbon nanotube infill on the mechanical and electrical properties of additively manufactured polyether-ether-ketone nanocomposites via fused filament fabrication[J] Additive Manufacturing, 2022, 59:103188. (共同通讯）

[20] Yue Wang, Jipeng Zhang, Guodong Fang, Jiazhen Zhang（张嘉振）, Zhengong Zhou, Shiyu Wang. Influence of temperature on the impact behavior of woven-ply carbon fiber reinforced thermoplastic composites[J]. Composite Structures, 2017, 185: 435-445.（第一作者为指导的博士研究生）

[21] Jipeng Zhang, Yue Wang, Jiazhen Zhang（张嘉振）, Zhengong Zhou, Guodong Fang, Yuan Zhao, Shiming Zu. Characterizing the Off-Axis Dependence of Failure Mechanism in Notched Fiber Metal Laminates[J]. Composite Structures, 2018, 185: 148-160. （第一作者为指导的博士研究生）

[22] Che L, Zhou Z, Fang G, Ma Y, Dong W, Zhang J（张嘉振）. Cured shape prediction of fiber metal laminates considering interfacial interaction[J]. Composite Structures, 2018, 194: 564-574. （第一作者为指导的博士研究生）

[23] Wang Y, Zhang J, Zhang J（张嘉振）, Zhou Z, Fang G, Wang S. Compressive behavior of notched and unnotched carbon woven-ply PPS thermoplastic laminates at different temperatures[J]. Composites Part B: Engineering. 2018; 133: 68-77. （第一作者为指导的博士研究生）

[24] Zhao Y, Alderliesten R, Zhou ZG, Fang GD*, Zhang JZ（张嘉振）, Benedictus R. On the physics of applying finite width and geometry correction factors in fatigue crack growth predictions of GLARE. International Journal of Fatigue, 2018, 117:189-195. （第一作者为指导的博士研究生）

[25] Zhao Y, Alderliesten R, Wu ZW, Zhou ZG, Fang GD*, Zhang JZ（张嘉振）, Benedictus R. Determining finite-width-correction factors for fatigue crack growth prediction in GLARE using the equivalent compliance method. International Journal of Fatigue, 2019,127:74-81. （第一作者为指导的博士研究生）