Application of the theory of plasticity of the cold pilgering of tubes
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Theory of plasticity on cold pilgering of tubes
Cited by (35)
Modeling of cold pilgering of stainless-steel tubes
2024, Journal of Manufacturing ProcessesRealistic finite element analysis model of the pilgering process to deal with initial tube thickness nonuniformity
2023, Journal of Manufacturing ProcessesTexture evolution and controlling of high-strength titanium alloy tube in cold pilgering for properties tailoring
2020, Journal of Materials Processing TechnologyCitation Excerpt :The variations of the grids during rolling process were measured, and the rolling force, reaction force, stress and strain distribution of the tube were calculated. In view of the Hencky’s stress-strain equation and the Mises yield criterion, Furugen and Hayashi (1984) proposed an analytical model of cold pilgering of zirconium tube. The stress and strain and rolling force can be calculated by using this analytical model.
Stress Variation of Zircaloy-4 and Johnson Cook Model for rolled sheets.
2018, Materials Today: ProceedingsForce Analysis during cold pilgering process for Zircaloy tube by both experiments and 3D FE simulation
2017, Procedia EngineeringA miniature physical simulator for pilgering
2016, Journal of Materials Processing TechnologyCitation Excerpt :Metal flow, modeled as flow through a convergent channel, in the foregoing modeling works by Lebensohn et al. (1996), Girard et al. (2001), and Singh et al. (2015a) is clearly inadequate as an input for full-scale pilgering simulations. Other approaches, including the finite element-based (Montmitonnet et al., 2002; Lodej et al., 2006) and analytical (Furugen and Hayashi, 1984; Harada et al., 2005) process models of pilgering offer more realistic deformation histories, but are limited to plastically isotropic materials. The strong texture of the present Zircaloy endows it with a highly anisotropic plastic response.