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Investigation of tensile and high cycle fatigue failure behavior on a TIG welded titanium alloy

The fracture behaviors of tungsten inert gas (TIG) welded titanium alloy TA15 subjected to tensile and fatigue loadings were investigated. Using the staircase test method, the fatigue probabilistic S-N (P-S-N) curves of the titanium alloy were obtained. Electron back scattered diffraction (EBSD) and...

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Published in:Intermetallics 2021-05, Vol.132, p.107115, Article 107115
Main Authors: Ren, Duqiang, Jiang, Yun, Hu, Xiaoan, Zhang, Xianzheng, Xiang, Xiaoping, Huang, Kai, Ling, Huixiang
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container_title Intermetallics
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creator Ren, Duqiang
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Hu, Xiaoan
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description The fracture behaviors of tungsten inert gas (TIG) welded titanium alloy TA15 subjected to tensile and fatigue loadings were investigated. Using the staircase test method, the fatigue probabilistic S-N (P-S-N) curves of the titanium alloy were obtained. Electron back scattered diffraction (EBSD) and Scanning electron microscope (SEM) were utilized to study fracture mechanism. The results showed that the weldment had different microstructure sensitivity when it was subjected to different loading conditions. The tensile failure of TIG welded TA15 was mainly dominated by the geometry and plasticity deformation ability of the weldment. The grain boundary mismatch in the connection region of the base metal and heat-affected zone increased the grain boundary energy and hindered the dislocation movement in the fatigue test. The texture transformation between the base metal and the connection of base metal and heat-affected zone caused a slip mismatch region in which the material has weak fatigue strength. In short, the reason for the tensile and fatigue failure of TIG welded TA15 was discussed systematically in this study. •Fracture behaviors of TIG welded titanium alloy TA15 subjected to tensile and fatigue loadings were investigated.•The crystal orientation influence on fracture mechanism was discussed.•The reticular structure formed in the recrystallization had positive effect of the compatible deformation of TA15.•The grain boundary mismatch in the connection region of the base metal weakened the weldment fatigue strength.
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subjects Base metal
Crystal orientation
Fatigue failure
Fatigue strength
Fatigue tests
Fracture behavior
Fracture mechanics
Gas tungsten arc welding
Grain boundaries
Heat affected zone
High cycle fatigue
Metal fatigue
Rare gases
Titanium alloy
Titanium alloys
Titanium base alloys
Tungsten inert gas welding
Weldments
title Investigation of tensile and high cycle fatigue failure behavior on a TIG welded titanium alloy
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