Main Article Content

Abstract

This paper investigates the angular distortion induced by the gas metal arc welding (GMAW) process on the combined butt and T-joint with a thickness of 9 mm. The material used in this study was low manganese carbon steel S355J2G3. A 2-D and 3-D thermo-elastic-plastic finite element (FE) analysis has been developed to simulate the induced distortion of multipassed welding. In this research, SYSWELD 2010 with its computation management tool, known as multipassed welding advisor (MPA), was applied to analyze the distortion behavior of combined joint types. To model the heat source of GMAW, Goldak's double ellipsoid representation, which is available within this finite element analysis (FEA) code was selected. Prior to the results discussion, this paper also shows the step-bystep procedures to simulate combined jointing which begins with metallurgical and customized heat source modeling, and is followed by creating geometrical mesh using Visual-Mesh 6.5 for analyzing and processing the results. Apart from 2-D and 3-D comparison analysis, the final objective of this research is also aimed to be a baseline study to provide preliminary information in preparing the tools and equipment for experimental investigation.

 

Keywords

Angular distortion FEM Low alloy carbon steel Multipassed welding Thermo-elastic-plastic FEM

Article Details

How to Cite
Lidam, R., Yupiter, H., Redza, M., Rahim, M., Sulaiman, M., Zakaria, M., Tham, G., Abasa, S., Haruman, E., & Chau, C. (2012). Simulation Study on Multipassed Welding Distortion of Combined Joint Types using Thermo-Elastic-Plastic FEM. The Journal of Engineering Research [TJER], 9(2), 1–16. https://doi.org/10.24200/tjer.vol9iss2pp1-16

References

  1. Deng D, Murakawa H (2008), Prediction of welding distortion and residual stress in a thin plate buttwelded joint. Computational Material Science 43:353-365.
  2. ESI, SYSWELD 2010 Technical description of capabilities. Goldak JA, Akhlaghi M (2005), Computational welding mechanics. USA: Springer Science+Business Media, Inc.
  3. Lewis RW, Nithiarasu P, Seetharamu KN (2004), Fundamental of the finite element for heat and fluid flow. England: John Wiley & Son Ltd.
  4. Lidam RN, Manurung YH, Sulaiman MS, Redza MR, Rahim MR, Haruman E (2010), Distortion analysis of butt joint using FE-methods and experimental verification. ICAME 73-77.
  5. Long H, Gery D, Carlier A, Maropoulos PG (2009), Prediction of welding distortion in butt joint of thin plates. Material Design 30:4126-4135. Mandal NR (2004), Welding and distortion control. UK: Alpha Science international Ltd.
  6. Manurung YH, Bakar A, Redza MS, Abas MR, Tham SK, Chau CY (2010), Simulation study on built-up distortion of incornel 718 using SYSWELD. Int. Conf. on Eng. and ICT. Mollicone P, Camilleri D, Gray TG, Comlekci T (2006), Simple thermo-elastic-plastic models for welding distortion simulation. Journal of Materials Processing Technology 176:77-86. Parmar RS (2005), Welding engineering and technology. Delhi: Khanna Publishers.
  7. Redza MR, Manurung YH, Lidam RN, Abas SK, Tham G, Sulaiman MS (2010), Simulation study on angular distortion of multipass welding joint using SYSWELD. NAPAS, 532-540.
  8. Tsirkas SA, Papanikos P, Kermandis T (2003), Numerical simulation of the laser welding process in butt-joint specimens. Journal of Material Processing Technology 134:59-69.
  9. Tso LT, Chin PF, Wei CY (2001), Analysis of residual stresses and distortion in T-joint fillets welds. International Journal of Pressure Vessel and Piping 78:523-538.
  10. Zhang H, Zhang, Cai C, Gao L, Wu L (2008), Fundamental studies on in-process controlling angular distortion in asymmetrical double-sided arc welding. Journal of Materials Processing Technology 205:214-223.