Research on the Deformation Mechanism and Failure Behavior of Punch Bonding Technology with Dissimilar Sheet Metals

被引:0
|
作者
Feng Li
Jian Hui Li
Chao Li
L. L. Wang
机构
[1] Harbin University of Science & Technology,Department of Material Science and Engineering
[2] Chongqing University of Science and Technology,College of Mechanical and Dynamic Engineering
[3] Imperial College London,Department of Mechanical Engineering
来源
JOM | 2012年 / 64卷
关键词
Axial Strain; Equivalent Stress; Spot Welding; Elastic Recovery; Failure Behavior;
D O I
暂无
中图分类号
学科分类号
摘要
This article presents a study of the deformation mechanisms and failure behavior of punch bonding technology for dissimilar sheet metals. Using theoretical and numerical methods, the simulation of the punch bonding process is presented and the results show that to realize effective punch bonding, the sheets with higher elastic modulus and yield strength should be located at the punch side. It is also shown that when the boss height of the female die (X1) is too small, it is liable to induce excessive stress concentration under the punch blade, whereas when X1 is too large, the embedded depth of the sheets and the bonding reliability decrease significantly. Punch bonding experiments were performed and the results showed that for the configuration tested an X1 value of 10 mm was optimal for connection strength. The failure behavior of the punch bonding joint was joint cracking with smaller female die boss height and joint pull-off with larger female die boss height.
引用
收藏
页码:600 / 606
页数:6
相关论文
共 50 条
  • [21] Fabrication of Punch and Die Using Plasma-Assisted 3D Printing Technology for Piercing Sheet Metals
    Aizawa, Tatsuhiko
    Suzuki, Yohei
    Yoshino, Tomoaki
    Shiratori, Tomomi
    JOURNAL OF MANUFACTURING AND MATERIALS PROCESSING, 2022, 6 (03):
  • [22] Hybrid Experimental-Numerical Investigation on Plastic Deformation and Ductile Failure of Anisotropic Sheet Metals
    Wang, Lin
    MECHANIKA, 2022, 28 (05): : 343 - 350
  • [23] Tensile Mechanical Behavior and Bonding Failure Mechanism of Carbon Steel-rubber Vulcanizing Bonding
    Shi C.-S.
    Wang A.
    Zhu X.-H.
    Wan X.-F.
    Chai G.-D.
    Li B.
    Surface Technology, 2023, 52 (04): : 417 - 426
  • [24] The deformation and failure mechanism and control technology ofmining influenced roadway sides
    Jia H.
    Pan K.
    Liu S.
    Peng B.
    Fan K.
    Zhuo J.
    Wang Q.
    Caikuang yu Anquan Gongcheng Xuebao/Journal of Mining and Safety Engineering, 2020, 37 (04): : 689 - 697
  • [25] Deformation and failure behavior of 2024-T42 sheet under impact loading
    Chen, Lang
    Zhu, Ban
    Wu, Zhibin
    Hu, Bo
    Li, Yulong
    Guo, Yazhou
    THIN-WALLED STRUCTURES, 2024, 203
  • [26] Alternative characterization method for the failure behavior of sheet metals derived from Nakajima test
    Kohl, D.
    Merklein, M.
    INTERNATIONAL DEEP-DRAWING RESEARCH GROUP CONFERENCE (IDDRG 2021), 2021, 1157
  • [27] A Novel High-Speed Bulge Test to Identify the Large Deformation Behavior of Sheet Metals
    L. Corallo
    G. Mirone
    P. Verleysen
    Experimental Mechanics, 2023, 63 : 593 - 607
  • [28] A Novel High-Speed Bulge Test to Identify the Large Deformation Behavior of Sheet Metals
    Corallo, L.
    Mirone, G.
    Verleysen, P.
    EXPERIMENTAL MECHANICS, 2023, 63 (04) : 593 - 607
  • [29] Deformation behavior of adhesive layer in stretch-bending/unbending for adhesively bonded sheet metals
    Takiguchi, Michihiro
    Tokuda, Taro
    Yoshida, Tetsuya
    Uemori, Takeshi
    Yoshida, Fusahito
    ADVANCES IN MATERIALS AND PROCESSING TECHNOLOGIES XVI, 2014, 939 : 19 - +
  • [30] Deformation behavior and failure mechanism of AA7075 alloy during the cryogenic temperature-assisted incremental sheet forming process
    Li, Yanle
    Liu, Feifei
    Du, Jiyu
    Ge, Tingyu
    Mironenko, Vladimir V.
    Li, Fangyi
    THIN-WALLED STRUCTURES, 2024, 202