
doi: 10.1007/bf01177063
In finite homogeneous deformation processes, the principal triad generally rotates with respect to a material element during the deformation. The material derivative of the logarithmic strain is no longer simply related to the rate of deformation tensor, and this is exemplified herein. A mathematical procedure is provided for the analysis and the derivations are formulated using the co-rotational rate technique in hope that this technique may be extended to other applications in future modeling. It will be apparent in the article that the co- rotational rate formulation provides a convenient mathematical procedure for handling problems in finite deformation.
relative spin, Lagrangian traid, Eulerian traid, rotation tensors, Nonlinear elasticity, material rotations, logarithmic strain rate, finite homogeneous deformation processes, spin tensors, co-rotational rate technique
relative spin, Lagrangian traid, Eulerian traid, rotation tensors, Nonlinear elasticity, material rotations, logarithmic strain rate, finite homogeneous deformation processes, spin tensors, co-rotational rate technique
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