The metallurgical and mechanical properties of Ti6Al4V/(WC-Co) friction welds have ben investigated. The microstructure close to the bondline comprised a mixture of acicular and equiaxed α plus β phases. The diffusion of elements in the welded specimens has been detected. The fracture strengths of Ti6Al4V/(WC-Co) friction welds markedly improved when the cobalt content in the (WC-Co) carbide substrate increased.
During the three-point bend testing of Ti6Al4V/WC-6wt.%Co welds, the crack initiated at the bondline region at the periphery of the weld and then propagated into the brittle (WC-6wt.%Co) substrate, while with the Ti6Al4V/WC-11 wt.%Co and Ti6Al4V/WC-24wt.%Co welds, the crack initiated and propagated at the bondline region.
M. Shamanian, , A. Saatchi, , & M. Salehi and T. H North, (2022). Evaluation of Microstructure and Mechanical Properties of Ti6A14V / (WC-Co) Friction Welds. Journal of Computational Methods in Engineering, 21(2), 145-158.
MLA
M. Shamanian; A. Saatchi; M. Salehi and T. H North. "Evaluation of Microstructure and Mechanical Properties of Ti6A14V / (WC-Co) Friction Welds", Journal of Computational Methods in Engineering, 21, 2, 2022, 145-158.
HARVARD
M. Shamanian, , A. Saatchi, , M. Salehi and T. H North, (2022). 'Evaluation of Microstructure and Mechanical Properties of Ti6A14V / (WC-Co) Friction Welds', Journal of Computational Methods in Engineering, 21(2), pp. 145-158.
VANCOUVER
M. Shamanian, , A. Saatchi, , M. Salehi and T. H North, Evaluation of Microstructure and Mechanical Properties of Ti6A14V / (WC-Co) Friction Welds. Journal of Computational Methods in Engineering, 2022; 21(2): 145-158.