Simulation of laser welding using advanced particle methods

被引:1
|
作者
Hu H. [1 ]
Fetzer F. [1 ]
Berger P. [1 ]
Eberhard P. [1 ]
机构
[1] Institute of Engineering and Computational Mechanics, University of Stuttgart, Pfaffenwaldring 9, Stuttgart
关键词
cosimulation; Laser welding; phase transition; ray tracing; Smoothed Particle Hydrodynamics; SPH;
D O I
10.1002/gamm.201610010
中图分类号
学科分类号
摘要
The process of laser welding is modelled using the meshless Lagrangian Smoothed Particle Hydrodynamics (SPH) method. Significant physical effects during the welding process like heat conduction, surface tension, and the occuring phase transitions melting, solidification, and evaporation are considered in the model. By coupling an SPH code with a ray tracer that tracks the propagation of independent light rays in the capillary and calculates the locally absorbed intensity by means of geometrical optics, the laser-material interaction is represented in detail, even for complex capillary geometries. Therefore, both heat conduction and deep penetration laser welding can be simulated using this co-simulation approach. The model is able to predict the temperature distribution during the welding process and the dimensions of the resulting weld seam. Furthermore, the vaporisation threshold and deep penetration threshold can be estimated. The numerical results are validated by comparing the obtained threshold values with experimental data and an analytical approximation during seam welding of aluminum. (© 2016 WILEY-VCH Verlag GmbH & Co. KGaA, Weinheim). Copyright © 2016 WILEY-VCH Verlag GmbH & Co. KGaA, Weinheim
引用
收藏
页码:149 / 169
页数:20
相关论文
共 50 条
  • [41] Computer Simulation for Laser Welding of Thermoplastic Polymers
    Ho, Ching-Yen
    Wen, Moa-Yu
    Ma, Chung
    2010 SECOND INTERNATIONAL CONFERENCE ON COMPUTER ENGINEERING AND APPLICATIONS: ICCEA 2010, PROCEEDINGS, VOL 1, 2010, : 362 - 364
  • [42] Research on welding simulation methods and software development
    Murakawa, Hidekazu
    Ma, Ninshu
    China Welding (English Edition), 2014, 23 (01): : 19 - 26
  • [43] A review of welding simulation methods for large components
    Shuai Liu
    Zhiqiang Wu
    Wenhao Zhou
    Honggang Zhou
    Keke Zhang
    Danqing Yin
    Yongping Lei
    Yongfeng Qiu
    Progress in Natural Science:Materials International, 2023, 33 (05) : 551 - 568
  • [44] Numerical simulation of laser impact spot welding
    Wang, Xiao
    Shao, Meng
    Gao, Shuai
    Gau, Jenn-Terng
    Tang, Heng
    Jin, Hao
    Liu, Huixia
    JOURNAL OF MANUFACTURING PROCESSES, 2018, 35 : 396 - 406
  • [45] FEM simulation of pulsed laser seam welding
    Lapsanska, Hana
    Havelkova, Martina
    Chmelickova, Hana
    PROCEEDINGS OF THE 48TH INTERNATIONAL SCIENTIFIC CONFERENCE ON EXPERIMENTALNI ANALYZA NAPETI 2010 EXPERIMENTAL STRESS ANALYSIS, 2010, : 217 - 224
  • [46] Simulation of heat transfer in laser transmission welding
    Prabhakaran, R
    Kontopoulou, M
    Zak, G
    Bates, PJ
    Sidiropoulos, V
    INTERNATIONAL POLYMER PROCESSING, 2005, 20 (04) : 410 - 416
  • [47] Finite element simulation of laser material welding
    Ahmanache, A
    Amara, EH
    ElKhelfaoui, Y
    LASERS IN ENGINEERING, 1996, 5 (03) : 217 - 226
  • [48] Numerical simulation of laser full penetration welding
    Kazemi, Komeil
    Goldak, John A.
    COMPUTATIONAL MATERIALS SCIENCE, 2009, 44 (03) : 841 - 849
  • [49] Hybrid simulation of laser deep penetration welding
    Schoeler, C.
    Haeusler, A.
    Karyofylli, V.
    Behr, M.
    Schulz, W.
    Gillner, A.
    Niessen, M.
    MATERIALWISSENSCHAFT UND WERKSTOFFTECHNIK, 2017, 48 (12) : 1290 - 1297
  • [50] Finite element simulation of laser spot welding
    De, A
    Maiti, SK
    Walsh, CA
    Bhadeshia, HKDH
    SCIENCE AND TECHNOLOGY OF WELDING AND JOINING, 2003, 8 (05) : 377 - 384