0640973 20251121111857.120251106235959.9 219 s. E cav_un_epca*0640651978-80-261-1254-9132-135PlzeňUniversity of West Bohemia in Pilsen2025AdámekV.JonášováA.PláničkaS. finite strain theory Hencky strain finite element method vectorization cav_un_auth*0496429 Moskovka Alexej UT-L D 5 - Ultrazvukové metody D 5 - Ultrasonic Methods CZ Ústav termomechaniky AV ČR, v. v. i. cav_un_auth*0255186 Frost Miroslav UT-L D 5 - Ultrazvukové metody D 5 - Ultrasonic Methods D5 – Ultrasonic Methods CZ Ústav termomechaniky AV ČR, v. v. i. cav_un_auth*0292941 Valdman Jan UTIA-B Matematická teorie rozhodování Department of Decision Making Theory MTR MTR Department of Decision Making Theory Ústav teorie informace a automatizace AV ČR, v. v. i. cav_un_auth*0084149 Horák M. CZ pdf https://compmech.kme.zcu.cz/download/proceedings/CM2025_Conference_Proceedings.pdf EH22_008/0004591 GA MŠk CZ cav_un_auth*0465703 This paper exemplifies the finite strain procedure based on the logarithmic strain approach and its numerical implementation, including the incorporation into FEM, on a three-dimensional linear elasticity model. The procedure encompasses both the pre-processing phase, in which the logarithmic strain measure is computed from displacements, the resolution of the constitutive model, and the post-processing phase, in which the fundamental quantities (stress tensor, tangent modulus) must be consistently transformed to comply with the particular FEM formulation. cav_un_auth*0496430 Computational Mechanics 2025 /40./ 20251103 20251105 Srní CZ JG 20000 20300 20302 2026 4 UTIA-B 10000 10100 10102 4 O 4o 20251110121329.8 PR RVO:61388998 RVO:67985556 https://hdl.handle.net/11104/0371275 S 2025 Soubory v repozitáři: 0640973_postprint_CompMech_25_Moskovka.pdf SCOPUS PUBMED WOS cav_un_epca*0640651 Computational mechanics 2025. Proceedings of computational mechanics 2025 University of West Bohemia in Pilsen 2025 Plzeň 132 135 978-80-261-1254-9 Adámek V. 340 Jonášová A. 340 Plánička S. 340