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Objective thermomechanics

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arxiv 1510.08038 v2 pith:NRJMJHEW submitted 2015-10-27 physics.class-ph

classification physics.class-ph
keywords metricreferencerelaxedchangedefinedirreversiblekinematicobjective
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An irreversible thermodynamical theory of solids is presented where the kinematic quantities are defined in an automatically objective way. Namely, auxiliary elements like reference frame, reference time and reference configuration are avoided by formulating the motion of the continuum on spacetime directly. Solids are distinguished from fluids by possessing not only an instantaneous metric tensor but also a relaxed metric. The elastic state variable is defined through comparing these two metrics. Thermal expansion is conceived as temperature dependence of the relaxed metric and plasticity, an irreversible change in the relaxed metric, is described via a plastic change rate tensor. Thermomechanics is built around these -- finite deformation -- kinematic quantities by starting from mechanics and adding thermodynamical requirements gradually. The obtained theory is not restricted to isotropic media.

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  1. Thermodynamical extension of a symplectic numerical scheme with half space and time shift demonstrated on rheological waves in solids

    physics.class-ph 2019-08 conditional novelty 5.0 of 10

    A staggered finite difference scheme, based on half-step shifts and an interpolated relaxation term, yields stable second-order accurate simulations of Poynting-Thomson-Zener waves and is much faster than COMSOL for t...

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