TWI Digital Library

106 results in Symposia Papers
  1. Hirata T., Tanaka T., Chung S.W., Takigawa Y., Higashi K. 7th International Symposium 2008

    The deformation behaviour and microstructural evolution of friction stir processed Zn, 22%Al rolled sheet (thickness 3 mm) were compared with those of the corresponding superplastic alloy. Friction stir processing was performed at a rotational speed…

  2. Zens A., Vieltorf F., Sigl M.E., Zaeh M.F. 13th International Symposium 2024

    This paper describes the goals and initial progress of the research project titled "qualification of micro friction stir spot welding for cell-internal contacting of large-format battery cells in a battery production environment (μKoBatt)", which…

  3. Miyake M., Sato Y.S., Kokawa H., Takaku Y., Omori T., Ishida K., Imano S., Park S.H.C., Hirano S. 9th International Symposium 2012

    Several kinds of Co-based alloys with different mechanical properties (e.g. high temperature strength, hardness, wear resistance and gamma-solvus temperature) were designed for friction stir welding (FSW) tool applications by varying chemical compos…

  4. Chen Z.W., Parningotan D., Li W., Tarrant M. 11th International Symposium 2016

    An experimental investigation was undertaken to examine how tool pin induced material flow and intermetallic growth conditions affect the formation of discontinuity during friction stir lap welding of dissimilar Al-Cu joints. The materials comprised…

  5. Qin H.L., Zhang H., Wu H.Q. 10th International Symposium 2014

    Friction stir welding experiments were undertaken on 2195-T8 (Al, 3.99%Cu, 1.09%Li) alloy sheets (thickness 5 mm) and the weldability, microstructure and mechanical properties of the fabricated butt joints were investigated. Welding was performed us…

  6. Ding R.J., Oelgoetz P.A. 1st International Symposium 1999

    A friction stir welding tool with a variable length probe (suitable for variable thickness joints, repairs and circumferential welding) was developed and evaluated for the welding of aluminium alloy 2195. Tapered sheet, of both increasing and decrea…

  7. Fraser K., St-Georges L., Kiss L.I. 11th International Symposium 2016

    An investigation is presented into a methodology for simulating the entire friction stir welding (FSW) process using a hybrid mesh free method on a graphics processing unit (GPU) and its implementation for different FSW applications such as butt joi…

  8. St-Georges L., Kiss L.I., Dassylva-Raymond V. 7th International Symposium 2008

    Numerical simulations and experimental tests were undertaken to visualise material flow and to study the effect of the flow field on the mixing mechanism and particle break-up in friction stir welding of metal matrix composites. A 3D thermo-fluid mo…

  9. Kallgren T., Sandstrom R. 4th International Symposium 2003

    As part of a study investigating FSW as a method for joining the lids on copper canisters for the long term storage of nuclear waste, the development of microstructure and heat flow during the FSW process was experimentally investigated. The microst…

  10. Chen G.Q., Feng Z.L., Zhu Y.C., Shi Q.Y. 10th International Symposium 2014

    Based on a friction model incorporating the dynamic coupling between friction and material flow in heat transfer and fluid flow models, a computational fluid dynamics (CFD) methodology was employed to study material flow during friction stir welding…

  11. Simar A., de Meester B., Brechet Y., Pardoen T. 6th International Symposium 2006

    Friction stir welding (FSW) experiments were performed on 6005A-T6 (Al, 0.49%Mg, 0.61%Si) alloy plates (thickness 6 mm) using a fully instrumented CNC milling machine, and the microstructure and mechanical properties of the welded joints were invest…

  12. Frigaard O., Grong O., Bjorneklett B., Midling O.T. 1st International Symposium 1999

    A process model for friction stir welding (FSW) of Al-Zn-Mg alloys, used to predict HAZ microstructure and hardness, is presented. Numerical solutions (using a finite difference approach) are developed for heat generation and heat flow. Microstructu…

  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. 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…

  15. Chen C.L., Al-Badairy H., Tatlock G.J., Jones A., McColvin G. 7th International Symposium 2008

    A comprehensive microstructural investigation, incorporating SEM, TEM, STEM (scanning transmission electron microscopy) and EBSD (electron backscattering diffraction), was undertaken on PM 2000 (Fe, 20%Cr, 5.5%Al, 0.5%Ti, 0.5%Y2O3) ODS (oxide disper…

  16. Vucetich D.A., Feloy L.E., Gonzalez A.C. 11th International Symposium 2016

    AA 2219 aluminium alloy sheets (thickness 2.5 mm) were joined by friction stir welding (FSW) and an investigation was undertaken into the relationship between joint mechanical properties, the torque generated by the spindle motor and process variabl…

  17. Volovitch P., Masse J.E., Baudin T., Da Costa B., Goussain J.C., Saikaly W., Barrallier L. 5th International Symposium 2004

    Friction stir welding (FSW) was applied to the magnesium alloy AZ91 (Mg, 8.21%Al, 0.64%Zn), optimum welding parameters were derived, structural and mechanical properties of the weld zone were determined, and the influence of microstructure on weld p…

  18. Yasui T., Matsumura H., Tsubaki M., Fukumoto M., Matsumura Y., Fujii K., Kon T., Kondo Y. 8th International Symposium 2010

    The friction stir spot welding of automotive aluminium alloy and Zn-coated steel was investigated. Welds were made in 6000 series AlMgSi alloys (1.2 mm thickness) and galvanised steel (1.1 mm thickness) using a multi-step friction stir spot process.…

  19. Leonard A.J. 2nd International Symposium 2000

    The microstructure and age hardening of friction stir welds in aluminium alloy plate 2014A-T651 (Al, 4.42%Cu, 0.79%Si, 0.62%Mg) and 7075-T651 (Al, 5.99%Zn, 2.72%Mg, 1.46%Cu) were investigated. Single sided butt welds were produced, temperatures bein…

  20. da Silva M., Gougeon P., St-Georges L., Chen X.G. 7th International Symposium 2008

    Friction stir welding experiments were undertaken on butt joints of AA6063 alloys (Al, 0.45-0.9%Mg, 0.2-0.6%Si) and AA6063 matrix reinforced with 6 and 10.5 vol.% B4C, and the effect of particle concentration on welded joint microstructure and micro…

Loading...