3D modelling of multipass welding of a 316L stainless steel pipe

被引:106
|
作者
Duranton, P
Devaux, J
Robin, V
Gilles, P
Bergheau, JM
机构
[1] Le Discover, ESI France, F-69485 Lyon 03, France
[2] FRAMATOME ANP, F-92084 Paris, France
[3] CNRS, ECL, ENISE, UMR 5513,LTDS, F-42100 St Etienne, France
关键词
welding; multipass; simulation; finite element;
D O I
10.1016/j.jmatprotec.2004.04.128
中图分类号
T [工业技术];
学科分类号
08 ;
摘要
Welding processes induce residual stresses and distortions which can play a major role in the mechanical strength of a component. Numerical simulation of processes is of big help to control these effects as it provides the evolution of physical quantities such as temperature, stresses and strains at any point in the structure. Simulations of single pass welding stresses give today rather satisfying results. Prediction of distortions is far much difficult as it needs 3D simulations to accurately take account of the constraining conditions induced by the weld bead. The difficulty is still increased when considering multipass welding. This paper presents the 3D finite element simulation of multipass welding of a 316L stainless steel pipe. The whole process includes 13 weld passes and the simulation has been achieved using adaptive mesh refinements and a procedure to transport the results between the different meshes. The thermo-mechanical model used as well as the simulation methodology are detailed. Computed distortions and residual stresses are compared with experimental measurements after five passes. (C) 2004 Elsevier B.V. All rights reserved.
引用
收藏
页码:457 / 463
页数:7
相关论文
共 50 条
  • [21] Effects of initial 3D printed microstructures on subsequent microstructural evolution in 316L stainless steel
    Zhang, Chunlei
    Jensen, Dorte Juul
    Yu, Tianbo
    ACTA MATERIALIA, 2023, 242
  • [22] Compaction effects on the thermal properties of stainless steel 316L powders in 3D printing processes
    Dorantes, Carlos Abel Rojas
    Czekanski, Aleksander
    INTERNATIONAL JOURNAL OF ADVANCED MANUFACTURING TECHNOLOGY, 2025, 137 (7-8): : 3877 - 3886
  • [23] Evaluation of 3D printed 316L stainless steel microstructure and mechanical property by laser ultrasonics
    Xu, Da
    Yin, Anmin
    Zheng, Lei
    Yan, Xuejun
    Xu, Xiaodong
    Yuan, Peilong
    Lu, Yujie
    Liao, Wenchao
    Chen, Hou
    NONDESTRUCTIVE TESTING AND EVALUATION, 2024,
  • [24] Keyhole gas tungsten arc welding of AISI 316L stainless steel
    Feng, Yueqiao
    Luo, Zhen
    Liu, Zuming
    Li, Yang
    Luo, Yucan
    Huang, Yongxian
    MATERIALS & DESIGN, 2015, 85 : 24 - 31
  • [25] Laser Welding of 316L Austenitic Stainless Steel in an Air and a Water Environment
    Alhajhamoud, Mohamad
    Candan, Levent
    Ilgaz, Mehmet Alp
    Cinar, Ibrahim
    Ozbey, Sayit
    Corovic, Selma
    Miljavec, Damijan
    Kayahan, Ersin
    MATERIALS, 2022, 15 (06)
  • [26] Vacuum welding of palladium rare earth alloys with 316L stainless steel
    Li, YN
    Li, SJ
    Yuan, HM
    Tian, GM
    RARE METAL MATERIALS AND ENGINEERING, 1997, 26 (04) : 53 - 55
  • [27] Effects of welding on the passive oxide film of electropolished 316L stainless steel
    Trigwell, S
    Selvaduray, G
    JOURNAL OF MATERIALS PROCESSING TECHNOLOGY, 2005, 166 (01) : 30 - 43
  • [28] Dissimilar laser welding of commercially pure copper and stainless steel 316L
    Antony, Kurian
    Rakeshnath, T. R.
    MATERIALS TODAY-PROCEEDINGS, 2020, 26 : 369 - 372
  • [29] A coaxial nozzle assisted underwater laser welding of 316L stainless steel
    Li, Jianmin
    Jiang, Ping
    Gong, Zhaoliang
    Wang, Chunming
    Geng, Shaoning
    OPTICS AND LASER TECHNOLOGY, 2024, 171
  • [30] Comparing the Performance of Rolled Steel and 3D-Printed 316L Stainless Steel
    Lin, Yao-Tsung
    Tsai, Ming-Yi
    Yen, Shih-Yu
    Lung, Guan-Hua
    Yei, Jin-Ting
    Hsu, Kuo-Jen
    Chen, Kai-Jung
    MICROMACHINES, 2024, 15 (03)