TWI Digital Library

815 results in Symposia Papers
  1. Blanchard S., Langrand B., Fabis J., Denquin A. 6th International Symposium 2006

    Arcan tests (pure tensile, pure shear and mixed tensile/shear loads) were performed on parent material (6056-T78 aluminium alloy) and friction stir welded (FSW) specimens for comparison purposes and to assess the capability of strain field measureme…

  2. Fuller C., Mahoney M., Bingel W. 5th International Symposium 2004

    Aluminium alloy fusion welds were modified by friction stir processing (FSP) as a function of FSP location and tool design, and differences between the FSP locations and tools were quantified by microstructure and mechanical property measurements (u…

  3. Andersson C.G., Andrews R.E. 1st International Symposium 1999

    The friction stir welding of copper for the production of spent nuclear fuel storage disposal canisters was investigated. Initial trials were conducted on UNS-C10100 plate of 10 mm thickness. The high temperatures required the use of a sintered tung…

  4. Midling O.T., Rorvik G. 1st International Symposium 1999

    Alternative friction stir welding tool shoulder materials to improve welding speed and quality were evaluated. The materials, which were compared with tool steel using a tool designed for exchangeable shoulder inserts, were: nitrided tool steel, Inc…

  5. Fehrenbacher A., Duffie N.A., Ferrier N.J., Zinn M.R., Pfefferkorn F.E. 9th International Symposium 2012

    A real-time wireless temperature measurement system was developed to facilitate improved temperature measurement at the tool-workpiece interface and a closed-loop control system for friction stir welding (FSW) that maintains weld quality under vario…

  6. Dickerson T., Shi Q.Y., Shercliff H.R. 4th International Symposium 2003

    Experimental measurements and thermal modelling were used to determine the transient heat loss into friction stir welding tools and so calculate the welding efficiency. Energy inputs were determined from force and torque measurements made whilst per…

  7. Yasui T., Hirosawa K., Yokoyama H., Harada M., Maeda T., Suzuki A., Hirosawa K. 13th International Symposium 2024

    Multi-material structure is effective way to achieve lightening of vehicles for reduction of CO2 emission. Thus, carbon fiber reinforced thermo-plastic (CFRTP) and aluminum alloy (Al) are useful materials for lightening of vehicles. For fabrication …

  8. Steel R., Larsen S., Davis T., Fleck D. 11th International Symposium 2016

    A non weldable to weldable (N2W) methodology is presented in which friction stir welding (FSW) is used to join a non weldable (but highly wear resistant) material to a weldable material (e.g. a steel insert positioned within the wear resistant mater…

  9. London B., Mahoney M., Bingel W., Calabrese M., Waldron D. 3rd International Symposium 2001

    Experimental methods were developed to track material flow and mixing during the friction stir welding (FSW) process. Experiments were conducted with butt joints of 6.35 mm (0.25 in) thickness 7050-T7451 aluminium alloy plates. The FSW tool was H13 …

  10. Hinrichs J.F., Smith C.B., Orsini B.F., DeGeorge R.J., Smale B.J., Ruehl P.C. 5th International Symposium 2004

    Following an overview of friction stir spot welding (FSSW) for potential automotive applications (including robotic FSSW in poke welding and C-frame configurations, and pedestal FSSW machines for manual, automatic or robotic use), a FSSW process dev…

  11. Ivanov E., Theado E. 8th International Symposium 2010

    Friction stir welding (FSW) has been used to weld aluminum alloys such as 7075 to 7075, which is considered not weldable by most other methods. In this application FSW was used to join two dissimilar aluminum alloys 7075 and 6N pure copper in a lap …

  12. Mahoney M., Steel R., Nelson T., Packer S., Sorensen C. 7th International Symposium 2008

    An extensive study of friction stir welding (FSW) of HSLA-65 steel plate (thickness 6 mm) was undertaken, incorporating defect-free friction stir butt welding at a travel speed of 3.4 mm/s, the achievement of low/no distortion FSW by employing appro…

  13. Robson J.D., Sullivan A., Shercliff H.R., McShane G. 5th International Symposium 2004

    Variations in microstructure in friction stir welds in AA 7449 (Al, 2.2%Mg, 8.2%Zn, 1.7%Cu, 0.12%Si, 0.15%Fe, 0.2%Mn, 0.05%Cr, 0.25 T plus Zr) in the initially overaged (T7) condition were studied. Isothermal heat treatments were conducted at 350 an…

  14. Bordesoules I., Bigot A., Hantrais C., Odievre T., Laye J. 9th International Symposium 2012

    In relation to the development of "AIRWARE" technology based on Al-Cu-Li alloys for aircraft structural parts, a report is presented into the friction stir welding (FSW) of "AIRWARE" 2050 alloys, mechanical characterisation of welded joints, and ind…

  15. Wang J., Fu R.D., Li Y.J., Du D.X., Zhang J.F. 10th International Symposium 2014

    Low temperature post weld ageing heat treatment, with and without deep cryogenic pretreatment, was applied to friction stir welded joints of 2024-T351 (Al, 4.3%Cu, 1.6%Mg, 0.7%Mn) alloys, and the microstructure and mechanical properties of the joint…

  16. Steel R., Liu Q.Y., Yao X., Packer S., Leonhardt T. 7th International Symposium 2008

    An investigation is presented into the development of polycrystalline cubic boron nitride (PCBN) and composite W-Re alloys with PCBN and diamond reinforcement as tool materials for friction stir welding of high temperature materials. High-pressure, …

  17. Xue P., Xiao B., Ma Z.Y. 10th International Symposium 2014

    Friction stir welding (FSW) was employed to fabricate dissimilar joints between 1060 aluminium alloys and commercially pure Cu under various process conditions and microstructure and mechanical properties studies were conducted to investigate interm…

  18. Hannour F., Davenport A.J., Strangwood M. 2nd International Symposium 2000

    The relationship between microstructure and corrosion of friction stir welded joints in aluminium alloys 2024-T351 (Al, 4.43%Cu, 1.42%Mg, 0.61%Mn) and 7010-T7651 (Al, 5.92%Zn, 2.11%Mg, 1.68%Cu) was investigated. Plate of 6.35 mm (0.25 in) thickness …

  19. Colligan K.J. 7th International Symposium 2008

    A conceptual model was developed to describe the relationship between process variables and physical properties such as spindle torque, heat generation and workpiece temperature distribution for friction stir welding of aluminium alloys. The materia…

  20. Sued M.K., Pons D., Lavroff J. 10th International Symposium 2014

    With regard to the dependence of shoulder friction generation in bobbin friction stir welding on the interference (compression) between the substrate and the tool, an investigation was undertaken into the effects of different interference (compressi…

Loading...