Loos, K., Aydogdu, A.B., Lion, A., Johlitz, M. and Calipel, J. (2021) Strain-Induced Crystallisation in Natural Rubber: A Thermodynamically Consistent Model of the Material Behaviour Using a Serial Connection of Phases. Continuum Mechanics and Thermodynamics, 33, 1107-1140.
https://doi.org/10.1007/s00161-020-00950-9

has been cited by the following article:

• TITLE: Isomorphism Continuum Stored Energy Functional for Finite Thermoelastic Deformation

  AUTHORS: Fuzhang Zhao

  KEYWORDS: Entropy, Finite Thermoelasticity, Isomorphism Constitutive Model, Strain-Induced Crystallization, Thermodynamics

  JOURNAL NAME: Advances in Pure Mathematics, Vol.13 No.2, February 28, 2023

  ABSTRACT: Continuum mechanics for isotropic finite thermoelastic deformations have been reviewed. Thermal effects on mechanical responses of rubbers have been captured by the isomorphism continuum stored energy (CSE) functional with the multiplicative decomposition of deformation gradient while preserving the structure of symmetry for finite structural deformation. The CSE finite thermoelastic model fits and predicts experimental data of SR and NR-C60 rubbers at different external temperatures. For internal temperature effects of both NR and NR-SIC rubbers, the CSE finite thermoelastic model of stored energy and entropy, along with the newly developed CTE and CI models, fits both nominal stress-stretch and temperature change-stretch experimental data in uniaxial extension tests.