Finite strains: Objective rates, conjugate stress tensors, constitutive equations for composite materials that determine
material (Lagrangian) and
spatial (Eulerian)
tensors are taken as a basis. Such an approach allows
Finite strains: Objective rates, conjugate stress tensors, constitutive equations for composite materials that determine
material (Lagrangian) and
spatial (Eulerian)
tensors are taken as a basis. Such an approach allows
Kinematics of finite elastoplastic deformations and nonelastic (plastic) components in the multiplicative representation of the deformation gradient
tensor. We
Kinematics of finite elastoplastic deformations and nonelastic (plastic) components in the multiplicative representation of the deformation gradient
tensor. We
Statement of the problem of numerical modelling of finite deformations are stated. The first section is devoted kinematics of finite strains in the Lagrangian frame,
tensors Statement of the problem of numerical modelling of finite deformations are stated. The first section is devoted kinematics of finite strains in the Lagrangian frame,
tensors Nonlinear problem on hyperelastic deformation of the shell of average thickness FEM-Euler as linear function from
tensor of a
spatial gradient of speed are deduced. In the second section within
Thermal Casimir and Casimir-Polder interactions in N parallel 2D Dirac materials using gauge invariant components of the polarization
tensor extended to the whole complex frequency
Nonlinear problem on hyperelastic deformation of the shell of average thickness FEM-Euler as linear function from
tensor of a
spatial gradient of speed are deduced. In the second section within