Aslan, OzgurBayraktar, EminMechanical Engineering2024-07-052024-07-05202032076-341710.3390/app102491422-s2.0-85098260573https://doi.org/10.3390/app10249142https://hdl.handle.net/20.500.14411/3191aslan, ozgur/0000-0002-1042-0805; BAYRAKTAR, Emin/0000-0003-0644-5249This work aims at the unification of the thermodynamically consistent representation of the micromorphic theory and the microdamage approach for the purpose of modeling crack growth and damage regularization in crystalline solids. In contrast to the thermodynamical representation of the microdamage theory, micromorphic contribution to flow resistance is defined in a dual fashion as energetic and dissipative in character, in order to bring certain clarity and consistency to the modeling aspects. The approach is further extended for large deformations and numerically implemented in a commercial finite element software. Specific numerical model problems are presented in order to demonstrate the ability of the approach to regularize anisotropic damage fields for large deformations and eliminate mesh dependency.eninfo:eu-repo/semantics/openAccessstrain gradientsdamagesingle crystalsfinite elementsArticleQ21024WOS:000602751700001