Comparison of buckling distortion propensity for SAW, GMAW, and FSW

Welding Journal (Miami, Fla)

Volumn 85, Issue 9, 2006, Pages

  Bhide, S R ^a   Michaleris, P ^a   Posada, M ^b   Deloach, J ^b  

^a The Pennsylvania State University   (United States)

^b NAVAL SURFACE WARFARE CENTER   (United States)

Author keywords

Angular Distortion; Bowing Distortion; Buckling Distortion; Friction Stir Welding; Gas Metal Arc Welding; Residual Stress; Submerged Arc Welding; Welding Distortion

Indexed keywords

ANGULAR DISTORTION; BOWING DISTORTION; BUCKLING DISTORTION; FRICTION STIR WELDING; WELDING DISTORTION;

FRICTION; GAGES; GAS METAL ARC WELDING; RESIDUAL STRESSES; SHIPBUILDING; SUBMERGED ARC WELDING;

BUCKLING;

EID: 33748696354     PISSN: 00432296     EISSN: None     Source Type: Journal    
DOI: None     Document Type: Article

References (32)

1. Masubuchi, K. 1980. Analysis of Welded Structures. Pergamon Press, Oxford.
2. Ueda, Y., Kim, Y. C., and Yuan, M. G. 1989. A predictive method of welding residual stress using source of residual stress (report I) characteristics of inherent strain (source of residual stress). Transactions of JWRI 18(1): 135-141.
3. Tsai, C. L., Park, S. C., and Cheng, W. T. 1999. Welding distortion of a thin-plate panel structure. Welding Journal 78: 156-s to 165-s.
4. Michaleris, P., and DeBiccari, A. 1996. Prediction of welding distortion. Presented at 77th Annual AWS Convention.
5. Vanli, O. A., and Michaleris, P. 2001. Distortion analysis of welded stiffeners. Journal of Ship Production 17(4): 226-240.
6. Deo, M. V., Michaleris, P., and Sun, J. 2003. Prediction of buckling distortion of welded structures. Science and Technology in Welding 8(1): 55-61.
7. Goldak, J., Chakravarti, A., and Bibby, M. 1984. A new finite element model for welding heat sources. Metallurgical Transactions B, 15B: 299-305.
8. Leblond, J. B., and Devaux, J. 1984. A new kinetic model for anisothermal metallurgical transformations in steels including effect of austenite grain size.Acta Mettal 32(1): 137-146.
9. Watt, D. F., Coon, L., Bibby, M. J., Goldak, J., and Henwwod, C. 1988. An algorithm for modeling microstructural development in weld heat-affected zones. Acta Metall 36(11): 3029-3035.
10. Henwood, C., Bibby, M., Goldak, J., and Watt, D. 1988. Coupled transient heat transfer - microstructure weld computations, part B. Acta Metall 36(11): 3037-3046.
11. Murakawa, H., Ueda, Y., and Zhong, X. M. 1995. Buckling behavior of plates under idealized inherent strain. Transactions of JWRI 24(2): 87-91.
12. Michaleris P., and DeBiccar, A. 1997. Prediction of welding distortion. Welding Journal 76(4): 172-180.
13. Ulysse, P. 2002. Three-dimensional modeling of the friction stir-welding process. International Journal of Machine Tools and Manufacture 42:1549-1557.
14. Ulysse, P. 2002. Three-dimensional modeling of the friction stir welding process. International Journal of Machine Tools and Manufacture 48: 1549-1557.
15. McClure, J. C., Tang, W., Murr, L. E., Guo, X., Fang, Z., and Gould, J. E. 1998. A thermal model of friction stir welding. Proceedings of the 5th International Conference: Trends in Welding Research, pp. 590-595, Pine Mountain, Ga.
16. Gould, J., and Feng., Z. 1998. Heat flow model for fricion stir welding of aluminum alloys. Journal of Materials Processing & Manufacturing Science 7: 185-194.
17. Chao, Y. J., Qi, X., and Tang, W. 2003. Heat transfer in friction stir welding - experimental and numerical studies. Journal of Manufacturing Science and Engineering 125: 138-145.
18. Frigaard, O., Grong, O., and Milding, O. T. 2001. A process model for friction stir welding of age hardening aluminum alloys. Metallurgical and Materials Transactions A: Physical Metallurgy and Materials Science 32: 1189-1200.
19. Sutton, M. A., Reynolds, A. P., Wang, D.Q., and Hubbard, C. R. 2002. A study of residual stresses and microstructure in 2024-t3 aluminum friction stir butt welds. Journal of Engineering Materials and Technology 124: 215-221.
20. Sutton, M. A., Reynolds, A. P., Wang, D.Q., and Hubbard, C. R. 2002. A study of residual stresses and microstructure in 2024-t3 aluminum friction stir butt welds. Journal of Engineering Materials and Technology 124: 215-221.
21. Posada, M., DeLoach, J., Reynolds A. P., Bhide, S. R., and Michaleris, P. 2003. Evaluation of friction stir welded HSLA-65. In Advanced Marine Materials: Technology and Applications, London, UK, Royal Institution of Naval Architects.
22. Rosenthal, D., and Norton, J. T. 1945. A method for measuring triaxial residual stresses in plates. Welding Journal 24: 295-307.
23. Gunnert, R. 1961. Residual stresses. Special symposium on the behavior of welded structures, University of Illinois Engineering Experiment Station, Urbana, Ill., pp. 167-201.
24. Ueda, Y., Fukuda, K., Nakacho, K., and Endo, S. 1975. A new measuring method of residual stresses with the aid of finite element method and reliability of estimated values. Trans. Japan Welding research Institute 4(2): 122-131.
25. Ruud, C. O. 1982. A review of selected nondestructive methods for residual stress measurement. NDT International 15:15-23.
26. Determining residual stresses by the hole drilling strain gauge method. ASTM Standard E837.
27. Rendler, N. J., and Vigness, I. 1966. Hole-drilling strain-gauge method of measuring residual stresses. Exp Mech 6: 577-586.
28. Gupta, B. 1973. Hole-drilling technique: modifications in the analysis of residual stresses. Exp Mech 13: 45-48.
29. Zuccarello, B. 1999. Optimal calculation steps for the evaluation of residual stress by the incrementa hole-drilling method. Exp Mech 39: 117-124.
30. Mathar, J. 1934. Determination of initial stresses by measuring the deformation around drilled holes. Trans. ASME 56: 249-254.
31. Michaleris, P., and Sun, X. 1997. Finite element analysis of thermal tensioning techniques mitigating weld buckling distortion. Welding Journal 76(11): 451-457.
32. Deo, M. V., and Michaleris, P. 2003. Mitigation of welding induced buckling distortion using transient thermal tensioning. Science and Technology in Welding 8(1): 49-53.