A comparative study of different fatigue failure assessments of welded bridge details
Source abstract
Abstract
Five different welded joints frequently used in steel bridges have been selected to investigate the accuracy and applicability of three fatigue assessment methods. The first method, also categorised as the global method, is the nominal stress method, while the more advanced methods are the hot spot and the effective notch stress methods. Solid element based finite element models for welded bridge details were created by following the modelling requirements of each fatigue assessment method. A statistical evaluation based on the results of the finite element analyses and the fatigue test data collected from the literature was performed to determine the mean and characteristic fatigue strength. In addition, the standard deviation for each data series was also determined to conclude how well each method describes the fatigue strength of each welded detail. A method with a lower standard deviation is regarded as more accurate. Moreover, the evaluated results from each method were compared with the recommended fatigue strength values in the Eurocode 3 (EN 1993-1-9:2005) and IIW codes. In the light of the test results in this study, it appears that the codes are in reasonable agreement with the test data, even though a few examples of the opposite occurred. The conclusion based on the revised results in this article indicates that the nominal stress method yields satisfactory results, despite its simplicity. When considering the effort involved in creating FE models for numerical analysis, it seems clear that the choice of the nominal method is fairly acceptable.
Source: openaire · Quality: candidate unverified · Source record ↗
Research context
OpenAlex topics: Fatigue and fracture mechanics · Structural Load-Bearing Analysis · Mechanical stress and fatigue analysis
SciVX discovery tags are terminology-based. OpenAlex topics are source-provided classifications.
References (48)
Show source-provided references
1. Fatigue analysis of welded joints: state of development10.1016/S0951-8339(02)00075-8 ↗
2. Niemi E. Stress determination for fatigue analysis of welded components. In: IIW doc. IIS/IIW-1221-93, The International Institute of Welding, Cambridge, England; 1995.10.1533/9780857093202 ↗
3. Radaj · 2006
4. EC3, En-1993-1-9. Eurocode 3: design of steel structures – Part 1-9: Fatigue, in, CEN, Brussels; 2005.
5. Hobbacher A. Recommendation for fatigue design of welded joints and components. In: IIW-1823-07 ex. XIII-2151r4-07/XV-1254r4-07, The International Institute of Welding, Cambridge, England; 2008.
6. Recommended hot spot analysis procedure for structural details of FPSO’s and ships based on round-robin FE analyses
7. Modelling and fatigue life assessment of orthotropic bridge deck details using FEM10.1016/j.ijfatigue.2011.12.015 ↗
8. Niemi E, Tanskanen P. Hot spot stress determination for welded edge gussets. In: The International Institute of Welding – IIW Doc. XIII-1781-99 The International Institute of Welding, Finland; 1999.
9. New approach to the numerical fatigue-life prediction of spot-welded structures10.1046/j.1460-2695.2000.00316.x ↗
10. Der neue Ermüdungsfestigkeitsnachweis in TG 2 13 500
11. Berger P. Investigation on the fatigue strength of welded joints by full scale tests. In: Halle, editor. VEB Metalleichtbaukombinat; 1980.
12. Further fatigue tests on mild steel specimens with artificially induced residual stresses
13. Influence of local heating on fatigue behaviour of welded specimens
14. Haibach E, Oliver R. Fatigue investigation of higher strength structural steels in notched and in welded condition, synthesis of results and tentative conclusions. In: Report no. TB-114, Laboratorium für Betriebsfestigkeit, Darmstadt; 1974.
15. Hirt MA, Crisinel M. La resistance a la fatigue des pontres en ame pleine composees-soudees effect des plaquettes et goussets soudes a l’ aile. In: Ecole Polytechnique Federale De Lausanne Departement de Gemi Civil Institut De La Construction Metallique, ICOM 017, Lausanne; 1975.
16. Testing and analysis of fatigue behaviour in edge details: a comparative study using hot spot and structural stresses10.1243/09544062JMES999 ↗
17. Kim WS, Lotsberg I. Fatigue test data for welded connections in ship-shape structures, OMAE Specialty Symposium on FPSO Integrity, OMAE-FPSO’04-0018; 2004. p. 1–8.
18. Krämer W. Betriebsfestigkeitsversuche an Schweißverbindungen mit Lastkollektiven für Straßenbrücken, Schweißtechnik 17, Heft 11; 1967.
19. Ein Beitrag zur Betriebsfestigkeit geschweißter Konstruktionen
20. Neumann A. ZIS, I/1958 veröffentlicht. In: Neumann A, editor. Probleme der Dauerfestigkeit von Schweißverbindungen, VEB Verlag Technik, Berlin; 1960.
21. Puchner O. Augmentation de la résistance à la fatigue par chauffage localisé de plats et de poutres comportant des goussets soudés. In: IIW-Doc. XIII-179; 1959.
22. Wagner M. Fatigue strength of structural members with in-plane notches. In: International institute of welding, Doc. XIII-1730-98; 1998.
23. Gurney TR. Influence of artificially induced residual stresses on fatigue strength of load-carrying fillet welded joints in mild steel. Report D8/4/60 of the British Welding Research Association; 1961.
24. Berge S. Residul stress and stress intraction in fatigue testing of welded joints. In: Report SK/R 55, division of marine structures, The University of Trondheim, Norway; 1981.10.1520/STP30101S ↗
25. Booth · 1980
26. Gurney TR. Influence of elapsed time on fatigue strength of welded joints, IIW-Document no. XIII-590-70; 1969.
27. Influence of residual stresses on fatigue strength of plates with fillet welded attachments
28. Fatigue tests on butt and fillet welded joints in mild and high tensile structural steels
29. Some fatigue tests on fillet welded mild and high tensile steel specimens in the as-welded and normalized conditions
30. Han SH, Han JW, Kim JS, Rodopoulos CA. Estimating the fatigue life of welded joints considering statistical characteristics of weld toe shapes and multiple collinear surface cracks. In: International fatigue congress, Atlanta, USA; 2006.
31. Jamada K, Makino T, Baba C, Kikuchi Y. Fatigue analysis based on crack growth from toe of gusset end weld. In: Proceedings of ISCE 303, Japan Society of Chemical Engineers; 1980.10.2208/jscej1969.1980.303_31 ↗
32. A local approach for the fatigue strength evaluation of ship structures
33. Some basic fatigue data for various types of fillet welded joints in structual steel
34. Maddox SJ. A fracture mechanics analysis of the fatigue behaviour of a fillet welded joint, IIW-Document no. XIII-722-74; 1976.
35. Mang E, Bucak Ö. Untersuchungen an Verbindungen von geschlossenen und offenen Profilen aus hochfesten Stählen, Veröffentlichung Nr. P 11 und P 71 der Studiengesellschaft für Anwendungstechnik von Eisen und Stahl e.V., Düsseldorf; 1982.
36. The effect of peening and grinding on the fatigue strength of fillet welded joints
37. Department of energy and offshore energy technology board, United Kingdom offshore steels research project. In: Final report to ECSC contract no. 7210 KB/8/801, Department of Energy London; 1980.
38. Ostermann H. Einfluß einer Entspannungsbehandlung auf die Zeitfestigkeit von geschweißtem Panzerstahl XH 113, Laboratorium für Betriebsfestigkeit, Darmstadt, Bericht Nr. 2670 (unveröffentlicht); 1972.
39. Weck R. Results of fatigue tests on mild steel specimens with welded attachments, IIW-Document no. XIII-154; 1958.
40. Stallmeyer JE. Behaviour of welded built-up beams under repeated loads., Structural research series no. 135; 1957.
41. Fatigue strength of intersecting attachments10.1061/(ASCE)0733-9445(2005)131:6(924) ↗
42. Fatigue strength of cope-hole details in steel bridges10.1016/S0142-1123(97)85727-1 ↗
43. Izdinsky O. Engine room section in the building of river ships and the welding of steel reinforcements to the bottom cover ship., ZVARANIE VII/12; 1958. p. 363–8.
44. Hot spot stress S–N curve for fatigue analysis of plated structures10.1115/1.2355512 ↗
45. Hall LR, E SJ. The fatigue strength of flexural members. Fatigue committee – welding research council; 1959.
46. Fisher JW, Frank KH, Manfred AH, Bernard MM. Effect of weldments on the fatigue strength of steel beams., Fritz engineering laboratory report no. 334.2; 1969.
47. Finite element analysis and fatigue design of a welded construction machinery component using different concepts10.1016/j.engfailanal.2012.04.014 ↗
48. Fatigue assessment of arc welded automotive components using local stress approaches: application to a track control arm10.1016/j.ijfatigue.2011.02.001 ↗