TWI Digital Library

147 results in Symposia Papers
  1. Simmons T. 3rd International Symposium 2001

    The decision to use friction stir welding (FSW) in the manufacture of aluminium alloy car wheels by Simmons Wheels, Sydney, Australia is described. Rim sections are formed from alloy 6061 in thicknesses of 4-6 mm. These are attached to cast or forge…

  2. Marie F., Batalla F. 9th International Symposium 2012

    Use of friction stir welding (FSW) to replace mechanical fastening in fabrication of an aircraft component in the ROCT Project (Rib One with Crux and Tees) is described. Design is shown of the part, which was assembled using four butt welds from wro…

  3. Mroczka K., Pietras A. 10th International Symposium 2014

    Dissimilar joints between 2017A-T451 (Al, 4.14%Cu, 0.72%Mg, 0.68%Si) and AlSi9Mg (Al, 8.6%Si, 0.64%Fe, 0.34%Mn, 0.31%Mg) aluminium alloys were fabricated by a friction stir welding process featuring different rates of rotation of the pin and shoulde…

  4. Shtrikman M.M., Kashchuk N.M. 9th International Symposium 2012

    The friction stir disc welding (FSDW) process was developed to facilitate the production of high quality root welds, and the joint formation mechanism and the influence of tool rotation direction on joint properties were investigated. The FSDW set-u…

  5. Smith I.J., Lord D.D.R. 7th International Symposium 2008

    A review is presented of the growth in interest in friction stir welding (FSW) as measured by real industry applications and the distribution of related patent filings by time and geography, and case studies are reported to illustrate commonly occur…

  6. Savolainen K., Mononen J., Saukkonen T., Hanninen H., Koivula J. 5th International Symposium 2004

    Friction stir welding trials, comprising double-sided butt welding of plates of thickness 10-11 mm, were conducted to investigate the weldability of copper and its alloys and to determine the correct process parameters (welding and rotation speeds) …

  7. Ruhstorfer M., Zaeh M.F. 7th International Symposium 2008

    Tensile tests, computed tomography and documentation of process forces were employed to investigate the weldability of 1.4310 austenitic stainless steel reinforced extruded AW-6060 alloy (Al, 0.35-0.6%Mg, 0.6%Si) by friction stir welding, and the re…

  8. Mestek M., Sunger S., Kahnert M., Zah M.F. 9th International Symposium 2012

    With regard to the development of spin-formed domes for aerospace cryogenic fuel storage tanks, an investigation is presented into a friction stir welding (FSW) process for AA 2219 and AA 2195 aluminium alloys and the influence of FSW tool and proce…

  9. Chen Y.C., Nakata K. 7th International Symposium 2008

    Friction stir lap welding of aluminium alloy to magnesium alloy was investigated, emphasising the tensile strength, fracture location in the joint and microstructure evolution in the weld under different welding heat inputs. Dissimilar joints betwee…

  10. Avila J.A., Ruchert C.O.F.T., Mei P.R., Marinho R.R., Paes M.T.P., Ramirez A.J. 10th International Symposium 2014

    A two-run friction stir welding process was employed to fabricate butt joints in API 5L X80 pipeline steel (0.08%C, 1.86%Mn, 0.16%Cr, 0.01%Ni, 0.18%Mo, 0.03%V, 0.06%Nb) plates (thickness 12 mm) and fracture toughness was determined in the parent met…

  11. Thompson B., Doherty K., Niese C., Eff M., Stotler T., Pramann Z., Seaman J., Spencer R., White P. 9th International Symposium 2012

    With regard to the development of aluminium military vehicles, a report is presented into production level single run friction stir welding (FSW) process parameters for thick plate samples (thickness 12.7-40.6 mm) of 5083, 5059 and 2139 aluminium al…

  12. Minton T., Au J., Bulpett R. 7th International Symposium 2008

    Friction stir welding experiments were undertaken on commercial SPF (superplastic forming) AA 5083-H19 (Al, 4.43%Mg) and AA 2004 (Al, 6.05%Cu) aluminium alloys, and the effects of tool size, geometry and primary process variables on microstructure a…

  13. Bernath J., Thompson B., Ames N. 7th International Symposium 2008

    A short review is presented of the development of a friction stir welding process for steel and other hard metals using W-Re tool materials to produce repeatable, thick-section welds with minimal tool deformation. Issues discussed include: W, 25%Re …

  14. Failla D., Lippold J.C. 8th International Symposium 2010

    A modified Gleeble hot torsion test was used to simulate the stir zone microstructures in types 304L and 310 stainless steels obtained during friction stir welding (FSW). A Gleeble 3800 with a torsion mobile conversion unit was used to perform the t…

  15. Nagira T., Wu S., Wu Z., Fujii H. 12th International Symposium 2018

    Friction stir welding (FSW) experiments were undertaken on Cr-containing carbon steels (0.22%C, 0.5%Mn, 0-4%Cr) and the influence of Cr content on joint microstructure and mechanical properties was investigated. FSW was conducted at a tool rotationa…

  16. Ericsson M., Sandstrom R., Hagstrom J. 2nd International Symposium 2000

    The tensile and fatigue strength of friction stir welds were determined for aluminium alloy 6082 in various temper conditions. Plate of 5.8 mm thickness, in both T6 and T4 conditions, was welded using a tool speed of 1000 rev/min and a welding speed…

  17. Hashimoto T., Jyogan S., Nakata K., Kim Y.G., Ushio M. 1st International Symposium 1999

    The effects of friction stir welding process parameters (tool rotation speed and travel speed) on defects and mechanical properties in welds in aluminium alloys were investigated. Microstructural, macrostructural and mechanical properties of the wel…

  18. Ales S.K., Chen Z., Yazdanian S. 13th International Symposium 2024

    Fatigue testing was performed on welds joining AA2024 (AI4.5Cu1.4 Mg0.5Mn) alloy to TI6Al4V alloy by having AA100 strip as an interlayer utilizing friction stir lap welding (FSLW). During FSLW, the pin bottom was aimed not to touching the Ti6Al4V pl…

  19. Bussu G., Irving P.E. 1st International Symposium 1999

    Friction stir welded joints in 2024-T351 Al-Cu-Mg alloy were subjected to fatigue testing to evaluate the suitability of this welding process for aircraft manufacture. Aluminium alloy (Al, 3.8-4.9%Cu, 1.2-1.8%Cu, 0.5%Si, 0.5%Fe, 0.2%Zr) of 6.35 mm (…

  20. Ayer R., Fairchild D.P., Ford S.J., Nissley N.E., Jin H.W., Ozekcin A. 7th International Symposium 2008

    An investigation was undertaken to determine the strength and fracture toughness of joints fabricated by friction stir welding (FSW) in commercial X65 (0.07%C, 1.56%Mn, 0.06%Nb, 0.013%Ti) and X80 (0.05%C, 1.52%Mn, 0.26%Cr, 0.26%Cu, 0.1%Nb and 0.07%C…

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