Energy Absorption Characteristics of 3D Lattice Structure Filled with Periodic Inner Core Based on 3D Printing

被引:0
作者
Xiaogang Ji
Lin Deng
Jianan Zhang
Yuhao Luan
Yushun Duan
机构
[1] Jiangnan University,Jiangsu Provincial Key Laboratory of Food Advanced Manufacturing Equipment Technology, School of Mechanical Engineering
来源
Journal of Materials Engineering and Performance | 2022年 / 31卷
关键词
3D printing; energy absorption; periodic lattice structure; stress platform;
D O I
暂无
中图分类号
学科分类号
摘要
The 3D lattice structure is a porous lightweight periodic structure with high specific stiffness and strength and has good energy absorption characteristics. In this study, flexible resin was used as the research material, and a microporous lattice structure with a periodic inner core was designed and fabricated using digital light processing 3D printing technology by vertical and horizontal printing, respectively. Quasi-static axial compression experiments were performed to study the mechanical properties and energy absorption properties of the porous lattice structure. At the same time, the cell body structure of an existing x-type unit was studied, and the ratio of the stress platform of the structure with different diameters and angle parameters was studied. In this study, after a combination of theoretical analysis, ANSYS finite element analysis and experimental verification, a certain angle of control was obtained, and the x-type porous lattice structure showed excellent energy absorption characteristics. The research results suggest broad applicability, and the structure can be used as an in vitro 3D scaffold material in skin tissue engineering component technology and can also be used as a high-quality cushioning or damping material in vibration and energy absorption applications.
引用
收藏
页码:6784 / 6794
页数:10
相关论文
共 50 条
  • [21] Image-Based 3D Shape Generation Used for 3D Printing
    Li, Zemin
    Zhang, Lin
    Sun, Yaqiang
    Ren, Lei
    Laili, Yuanjun
    METHODS AND APPLICATIONS FOR MODELING AND SIMULATION OF COMPLEX SYSTEMS, 2018, 946 : 539 - 551
  • [22] A review: 3D printing of microwave absorption ceramics
    Wang, Tingting
    Lu, Xuefeng
    Wang, Ao
    INTERNATIONAL JOURNAL OF APPLIED CERAMIC TECHNOLOGY, 2020, 17 (06) : 2477 - 2491
  • [23] Low-frequency transducer with a periodic displacement amplification structure based on 3D printing
    Xia, Xuejian
    Lan, Yu
    Zhou, Tianfang
    APPLIED ACOUSTICS, 2023, 204
  • [24] 3D Printing Process Design and Printing Performance Analysis of Lattice Structure Compressor Impeller
    Zhang Y.
    Li F.-C.
    Jia D.-J.
    Xue Y.-G.
    Tuijin Jishu/Journal of Propulsion Technology, 2021, 42 (10): : 2325 - 2339
  • [25] 3D Animation Workshop: The Implementation of 3D Printing in Classroom
    Anizaim, Aimi Nabila
    Mohd Roslan, Nelysa Nurshafira
    Hami Ahmad, Asrul Hafiz Huliman
    EDUCATION EXCELLENCE AND INNOVATION MANAGEMENT THROUGH VISION 2020, 2019, : 1451 - 1455
  • [26] 3D printing thermoplastic polyurethane hierarchical cellular foam with outstanding energy absorption capability
    Zhang, Shuai
    Gao, Qiang
    Zhang, Yu
    Sheng, Xianzhe
    Miao, Zhenyun
    Qin, Jianbin
    Zhang, Guangcheng
    Shi, Xuetao
    ADDITIVE MANUFACTURING, 2023, 76
  • [27] 3D Printing in Capsule
    Mohd, Aasim
    Chaurasiya, Chanchal
    JOURNAL OF REPORTS IN PHARMACEUTICAL SCIENCES, 2022, 11 (02): : 156 - 164
  • [28] Retailing with 3D Printing
    Chen, Li
    Cui, Yao
    Lee, Hau L.
    PRODUCTION AND OPERATIONS MANAGEMENT, 2021, 30 (07) : 1986 - 2007
  • [29] 3D printing and the library
    Massis, Bruce E.
    NEW LIBRARY WORLD, 2013, 114 (7-8) : 351 - 354
  • [30] Pharmacy 3D printing
    Cheng, Jessica T. Y.
    Tan, Edwin C. K.
    Kang, Lifeng
    BIOFABRICATION, 2025, 17 (01)