
船舶与海洋工程系
电子邮件:sgj2004@sjtu.edu.cn
通讯地址:800 dongchuan road
个人主页:Wechat: sgj2004
硕士生导师,船舶与海洋工程系
2017.01-至今, 美加墨世界杯官方网站 船舶与海洋工程专业
2012.04-2016.12 中国船级社
2007.09-2012.03 美加墨世界杯官方网站 工程力学专业 博士
2003.09-2007.07 天津大学 船舶与海洋工程专业 学士
极端载荷下船海结构失效研究
复合材料结构承载能力分析与设计
面向孪生的载荷反演识别研究
结构抗冲击性能评估及拓扑优化
欢迎研究生联系交流!
主持基金项目
[1]国家自然科学基金青年项目,邮轮上层建筑对船体梁极限强度的作用机理及评估方法
[2]国家自然科学基金重点项目子课题,着舰冲击载荷反演试验方法研究
[3]国防科工局稳定支持基金,基于深度学习的舰船防护结构拓扑优化研究
[4]上海市自然科学基金,水下平台冲击冰载荷作用机制及反演方法研究
主持纵向项目
[1]极地海洋装备顶层设计研究
[2]极地航行安全预警与管理系统研究
[3]极地钻井船风险评价与预警方法研究
主持横向项目
[1]物理仿真混合模型的物理子结构刚度更新方法研究
[2]深海采矿水平输送软管系统力学仿真研究
[3]LNG液舱横舱壁温度场计算分析
[4]上层建筑典型连接结构强度试验
[5]钢制船型第三方独立校核
[6]轻量化总体布置技术研究
[7]船舶结构极限强度计算研究
[8]基于连杆应力监测机构整体安全性评估
代表性论文
[1]. Shi, G.J., Wang, D.Y. and Wang, F.H., Experimental investigation of the critical collapse behaviour of stiffened box girders under impact bending load. Structures, 2025. 79.
[2]. Shi, G.J., Wang, D.Y. and Wang, Z.H., Ultimate capacity experiment for containment system of LNG cargo under compression load along normal direction. Ships and Offshore Structures, 2025.
[3]. Shi, G.J., Wang, Z.H. and Wang, D.Y., Experimental studies of load-bearing capacity and failure behavior of LNG cargo containment systems with multiple layers of insulation under heavy footprint loads. Case Studies in Construction Materials, 2025. 22.
[4]. Shi, G.J., Wang, D.Y., Gao, D.W., and Li, Q., Impact load identification of ship panels under tire drop action based on the data-driven regression with regularization. Ocean Engineering, 2025. 322.
[5]. Shi, G.J., Wang, Z.Q., Wang, D., Zhang, H.D., and He, W.T., Fatigue failure behaviour of corrugated plates under alternating tension loads. Innovations in the Analysis and Design of Marine Structures, 2025.
[6]. Shi, G.J., Ji, Y.H., Xu, J.B., Wang, D.Y., and Xu, Z.T., Experimental study of structural failure and ultimate strength of GFRP girder with hat stiffeners and foams under bending load. Marine Structures, 2024. 96.
[7]. Shi, G.J., Wang, D.Y., Wang, F.H., and Cai, S.J., Analysis of Dynamic Response and Ultimate Strength for Box Girder under Bending Moment. Journal of Marine Science and Engineering, 2023. 11(2).
[8]. Shi, G.J., Xiong, Y.F. and Wang, D.Y., Dynamic buckling experiments for stiffened panels under falling hammer impact. Structures, 2023. 57.
[9]. Shi, G.J., Xiong, Y.F., Cai, S.J., and Wang, D.Y., Experiment study of dynamic buckling for stiffened panels under longitudinal impact. Ocean Engineering, 2023. 284.
[10]. Shi, G.J., Wang, D.Y., Hu, B., and Cai, S.J., Effect of initial geometric imperfections on dynamic ultimate strength of stiffened plate under axial compression for ship structures. Ocean Engineering, 2022. 256.
[11]. Shi, G.J. and Gao, D.W., Model experiment of large superstructures’ influence on hull girder ultimate strength for cruise ships. Ocean Engineering, 2021. 222.
[12]. Shi, G.J. and Gao, D.W., Transverse ultimate capacity of U-type stiffened panels for hatch covers used in ship cargo holds. Ships and Offshore Structures, 2021. 16(6): p. 608-619.
[13]. Shi, G.J. and Gao, D.W., Ultimate strength of U-type stiffened panels for hatch covers used in ship cargo holds. Ships and Offshore Structures, 2021. 16(3): p. 280-291.
[14]. Shi, G.J. and Gao, D.W., Reliability analysis of hull girder ultimate strength for large container ships under whipping loads. Structure and Infrastructure Engineering, 2021. 17(3): p. 319-330.
[15]. Shi, G.J. and Gao, D.W., Analysis of hull girder ultimate strength for cruise ship with multi-layer superstructures. Ships and Offshore Structures, 2019. 14(7): p. 698-708.
[16]. Wang, C.Y., Xie, H., Shi, G.J., Zou, C.F., and Wang, D.Y., Study of fluid impact on Mark III type flat panel in wet drop and the quantitative assessment method. Ocean Engineering, 2025. 331.
[17]. Zhang, H.D., Chen, J., Refaat, A., Shi, G.J., and Elsakka, M., Comparative study on sloshing suppression effectiveness between single and double floating composite baffles under horizontal resonant conditions. Ocean Engineering, 2025. 342.
[18]. Sun, L., Wang, D.Y. and Shi, G.J., Impact load identification method based on frequency response pattern recognition and dynamic sensor filter strategy. Journal of Ocean Engineering and Science, 2025. 10(4): p. 411-425.
[19]. Zhao, M.J., Han, Z., Zhong, Q., Shi, G.J., and Wang, D.Y., Experimental study of laser welded joint failure and overall ultimate strength for I-core sandwich panels. Ocean Engineering, 2025. 324.
[20]. Gao, D.W., C, L. and Shi, G.J., Impact load capacity assessment of cargo containment system considering various loading area and duration characteristics. Ocean Engineering, 2025. 333.
[21]. Xie, H., Li, J., Shi, G.J., Wang, D.Y., and Tang, H.Y., Characterization on the impact load of a local corner region of a liquid tank entering water. Ocean Engineering, 2024. 312.
[22]. Xie, H., Wei, D., Chen, G., Shi, G.J., and Wang, D.Y., Experimental and numerical analysis of the fluid flow behavior of a tank corner impacting a water surface. Physics of Fluids, 2024. 36(10).
[23]. Ji, Y.H., Shi, G.J., Wang, D.Y., Xu, Z.T., and Xu, J.B., Experimental investigation of failure modes and ultimate strength of GFRP structure members under longitudinal compression. Ocean Engineering, 2023. 287.
[24]. Xiong, Y.F., Shi, G.J., Wang, F.H., and Wang, D.Y., Dynamic buckling analysis of stiffened panels under in-plane uniaxial impact considering plate/web interaction. Ocean Engineering, 2023. 279.
[1] 一种船体载荷识别和全场安全评估的虚拟交互系统
[2]一种LNG船围护系统结构砰击压力测量系统
[3]Polar navigation window period assessment system based on three dimensional visualization simulation of ship-ice interaction
[4]一种用于拉压与疲劳强度测试的试验结构、装置及系统
[5]一种可调节的模块化落水试验平台
[6]基于船冰作用三维可视化模拟的极地航行窗口期评估系统
[7]LNG液舱围护系统角区大流量高压水摆动冲击装置
[8]舰载机多姿态多角度大能量冲击舰船甲板试验装置
[9]冲击载荷下船体大型加筋板动态屈曲及极限强度试验装置
[10] 一种长跨度箱型梁动态弯曲极限强度试验装置
[11]一种适用于局部凹陷结构的流体冲击量化评估方法及装置
[12]一种复合材料箱型梁极限强度试验钢-复混合连接结构
[13]一种晃荡液体冲击大型结构物的等效试验方法及装置
[14]冲击载荷识别软件
[15]复合材料船体梁极限强度Smith法软件
[16]基于VR的船舶极地航行窗口期最大化安全评估与管理系统, 2023年, 软著登字第12096575号
2025年中国造船学会科技进步奖
2023年上海市科技进步奖
2023年山东省海洋科技创新奖