Abstract
In this paper, the Hu 2003 plasticity criterion performance is assessed against an experimental database, and a comparison is made with two variants of Hill 48 criterion for 10 different materials, mainly through the examination of the yield stress and anisotropy coefficients evolutions and the calculation of precision indices. The results show that the Hill 48-R and Hu criteria demonstrate superior performance with the latter also showing a good compromise in predicting both \(\sigma \left( \theta \right)\) and \(R\left( \theta \right){ }\) behavior reasonably well. Furthermore, the occasional oscillatory nature of Hu’s criterion for certain materials is confirmed. Subsequently, a global sensitivity analysis using the variational approach proposed by Sobol is conducted on the formulation \(\sigma \left( \theta \right)\) of the Hu criterion. The aim is to understand its occasional oscillatory behavior and identify the significant inputs in relation to this phenomenon. Through this analysis, the preponderant effects of certain parameters, particularly \(\sigma_{b}\) and \(R_{45}\), on the criterion’s oscillation are elucidated. This study also provides insights into the applicability range of the Hu 2003 criterion.
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Najjar, W., Ghaouss, I., Tiba, I. et al. On the Hu 2003 Plasticity Criterion. J. of Materi Eng and Perform (2023). https://doi.org/10.1007/s11665-023-08700-z
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DOI: https://doi.org/10.1007/s11665-023-08700-z