2007
DOI: 10.1007/s00466-007-0163-0
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A material-independent algorithm for preserving of the orientation of the spatial basis attached to deforming medium

Abstract: The aim of the paper is to propose an algorithm to satisfy the orientation-preserving condition with hyperelastic materials. This algorithm is shown to be applicable for many material models. Its efficiency is assessed by numerical examples involving the Blatz-Ko, the Ogden and the Gent models.

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Cited by 5 publications
(2 citation statements)
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“…This paper establishes a starting point for several future works, among which we list the development of related higher-other methods such as the weighted essentially non-oscillatory (WENO) finite difference, see the survey by Shu (2016) and the references therein; methods and studies concerning higher-dimensional problems (LeVeque, 1997, Bale et al, 2002, Quezada de Luna and Ketcheson, 2014, Berjamin et al, 2019; analytical investigations using homogenization approaches (Andrianov et al, 2011, LeVeque and Yong, 2003b, Quezada de Luna and Ketcheson, 2014; and the introduction of a kinematic split between the isochoric and volumetric parts of the motion into the method, which is useful when the volumetric stiffness is several orders of magnitude greater than the shear stiffness (Holzapfel, 2000, Peyraut et al, 2007. and pressure waves, in each medium there are four different combinations of ways these waves may evolve, namely, smooth-smooth, shock-smooth, smooth-shock, and shock-shock.…”
Section: Discussionmentioning
confidence: 99%
“…This paper establishes a starting point for several future works, among which we list the development of related higher-other methods such as the weighted essentially non-oscillatory (WENO) finite difference, see the survey by Shu (2016) and the references therein; methods and studies concerning higher-dimensional problems (LeVeque, 1997, Bale et al, 2002, Quezada de Luna and Ketcheson, 2014, Berjamin et al, 2019; analytical investigations using homogenization approaches (Andrianov et al, 2011, LeVeque and Yong, 2003b, Quezada de Luna and Ketcheson, 2014; and the introduction of a kinematic split between the isochoric and volumetric parts of the motion into the method, which is useful when the volumetric stiffness is several orders of magnitude greater than the shear stiffness (Holzapfel, 2000, Peyraut et al, 2007. and pressure waves, in each medium there are four different combinations of ways these waves may evolve, namely, smooth-smooth, shock-smooth, smooth-shock, and shock-shock.…”
Section: Discussionmentioning
confidence: 99%
“…A 30 mm diameter sample is meshed with a 3D solid triangular element. The bottom of the sample is clamped and its top is considered as a rigid surface [13] [14]. The clay sample is compressed in a hollow solid cylinder which surfaces are clamped.…”
Section: Finite Element Modeling Of a Clay Paste Compressionmentioning
confidence: 99%