Abstract:
The equation of state of finite-strain thermoelasticity is obtained using a formalized approach to constructing constitutive relations for complex media under the assumption of closeness of intermediate and current configurations. A variational formulation of the coupled thermoelastic problem is proposed. The constitutive equation, the heat-conduction equation, the relations for internal energy, free energy, and entropy, and the variational formulation of the coupled problem of finite-strain thermoelasticity are tested on the problem of uniaxial extension of a bar. The model adequately describes experimental data for elastomers, such as entropic elasticity, temperature inversion, and temperature variation during an adiabatic process.
Citation:
A. A. Rogovoi, O. S. Stolbova, “Evolutionary model of finite-strain thermoelasticity”, Prikl. Mekh. Tekh. Fiz., 49:3 (2008), 184–196; J. Appl. Mech. Tech. Phys., 49:3 (2008), 500–509
This publication is cited in the following 5 articles:
E. M. Solnechnyi, “Studying the Dynamic Properties of a Distributed Thermomechanical Controlled Plant with Intrinsic Feedback. II”, Autom Remote Control, 84:4 (2023), 348
Farshad Shakeriaski, Maryam Ghodrat, Juan Escobedo-Diaz, Masud Behnia, “Modified Green–Lindsay thermoelasticity wave propagation in elastic materials under thermal shocks”, Journal of Computational Design and Engineering, 8:1 (2021), 36
E. M. Solnechnyi, “Studying the dynamic properties of a distributed thermomechanical system and stability conditions for its control system”, Autom. Remote Control, 82:8 (2021), 1338–1357
E. M. Solnechnyi, “Studying the dynamic properties of a distributed thermomechanical controlled plant with intrinsic feedback. I”, Autom. Remote Control, 81:4 (2020), 614–621
Anatoly A. Rogovoy, “Formalized approach to construction of the state equations for complex media under finite deformations”, Continuum Mech. Thermodyn., 24:2 (2012), 81