PSI - Issue 8

Matteo Loffredo / Procedia Structural Integrity 8 (2018) 265–275

275

M. Lo ff redo / Structural Integrity Procedia 00 (2017) 000–000

11

Acknowledgements

My gratitude goes to Marco Beghini, Bernardo Monelli, Andrea Bagattini and Federico Sorgona` that supported me in the execution of the research presented in this paper.

References

ASME, 1997. Correction for reverse yielding (bauschinger e ff ect). Pressure Vessel and Piping Design Code, Division 3, Section KD-522.2 , 71. Auricchio, F., Taylor, R.L., 1995. Two material models for cyclic plasticity: Nonlinear kinematic hardening and generalized plasticity. International Journal of Plasticity 11, 65–98. Chen, P.C.T., 1985. The bauschinger and hardening e ff ect on residual stresses in an autofrettaged thick-walled cylinder. Journal of Pressure Vessel Technology 108, 108–112. Gibson, M.C., Hameed, A., Parker, A.P., Hetherington, J.G., 2005. A comparison of methods for predicting residual stresses in strain-hardening, autofrettaged thick cylinders, including the bauschinger e ff ect. Journal of Pressure Vessel Technology 128, 217–222. Gibson, M.C., Parker, A.P., Hameed, A., Hetherington, J.G., 2012. Implementing realistic, nonlinear, material stress-strain behavior in ansys for the autofrettage of thick-walled cylinders. Journal of Pressure Vessel Technology 134. Hill, R., 1950. The Mathematical Theory of Plasticity. Oxford University Press. Jahed, H., Dubey, R., . An axisymmetric method of elastic-plastic analysis capable of predicting residual stress field. Journal of Pressure Vessel Technology , 264–273. Livieri, P., Lazzarin, P., 2001. Autofrettaged cylindrical vessels and bauschinger e ff ect: An analytical frame for evaluating residual stress distribu tions. Journal of Pressure Vessel Technology 124, 38–46. Parker, A.P., . Autofrettage of open-end tubes - pressures, stresses, strains, and code comparisons. Journal of Pressure Vessel Technology , 271–281. Parker, A.P., Hara, G.P.O., Underwood, J.H., 2003a. Hydraulic versus swage autofrettage and implications of the bauschinger e ff ect. Journal of Pressure Vessel Technology 125, 309–314. Parker, A.P., Troiano, E., Underwood, J.H., Mossey, C., 2003b. Characterization of steels using a revised kinematic hardening model incorporating the bauschinger e ff ect. Journal of Pressure Vessel Technology 125, 277–281. Parker, A.P., Underwood, J., Kendall, D., . Bauschinger e ff ect design procedures for autofrettaged tubes including material removal and sachs’ method. Journal of Pressure Vessel Technology , 430–437. Parker, A.P., Underwood, J., Kendalll, D., 1998. The bauschinger e ff ect in autofrettaged tubes - a comparison of models including the asme code. Watervliet arsenal report . de Swardt, R.R., 2006. Material models for the finite element analysis of materials exhibiting a pronounced bauschinger e ff ect. Journal of Pressure Vessel Technology 128, 190–195. Troiano, E., Underwood, J.H., Parker, A.P., 2006. Finite element investigation of bauschinger e ff ect in high-strength a723 pressure vessel steel. Journal of Pressure Vessel Technology 128 / 185, 185–189. Troiano, E., Underwood, J.H., Venter, A.M., Izzo, J.H., Norray, J.M., 2012. Improved finite element model to predict the reverse loading behavior of autofrettaged a723 and hb7 cylinders. Journal of Pressure Vessel Technology 134.

Made with FlippingBook Digital Proposal Maker