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Springback FE modeling of titanium alloy tubes bending using various hardening models
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 Title & Authors
Springback FE modeling of titanium alloy tubes bending using various hardening models
Shahabi, Mehdi; Nayebi, Ali;
 Abstract
In this study, effect of various material hardening models based on Holloman`s isotropic, Ziegler`s linear kinematic, non-linear kinematic and mixture of the isotropic and nonlinear kinematic hardening laws on springback prediction of titanium alloy (Ti-3Al-2.5V) in a tube rotary draw bending (RDB) process was investigated with presenting the keynotes for a comprehensive step by step ABAQUS simulation. Influence of mandrel on quality of the final product including springback, wall-thinning and cross-section deformation of the tube was investigated, too. Material parameters of the hardening models were obtained based on information of a uniaxial test. In particular, in the case of combined iso-nonlinear kinematic hardening the material constants were calibrated by a simple approach based on half-cycle data instead of several stabilized cycles ones. Moreover, effect of some material and geometrical parameters on springback was carried out. The results showed that using the various hardening laws separately cannot describe the material hardening behavior correctly. Therefore, it is concluded that combining the hardening laws is a good idea to have accurate springback prediction. Totally the results are useful for predicting and controlling springback and cross-section deformation in metal forming processes.
 Keywords
springback;cross-section deformation;metal forming;finite element method;tube bending;andrel;
 Language
English
 Cited by
1.
Effect of continuum damage mechanics on springback prediction in metal forming processes, Journal of Mechanical Science and Technology, 2017, 31, 5, 2229  crossref(new windwow)
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