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Asymptotic analysis of single-slip crystal plasticity in the limit of vanishing thickness and rigid elasticity

  • Dominik Engl ORCID logo EMAIL logo , Stefan Krömer ORCID logo and Martin Kružík ORCID logo
Published/Copyright: January 11, 2024

Abstract

We perform via Γ-convergence a 2d-1d dimension reduction analysis of a single-slip elastoplastic body in large deformations. Rigid plastic and elastoplastic regimes are considered. In particular, we show that limit deformations can essentially freely bend even if subjected to the most restrictive constraints corresponding to the elastically rigid single-slip regime. The primary challenge arises in the upper bound where the differential constraints render any bending without incurring an additional energy cost particularly difficult. We overcome this obstacle with suitable non-smooth constructions and prove that a Lavrentiev phenomenon occurs if we artificially restrict our model to smooth deformations. This issue is absent if the differential constraints are appropriately softened.

MSC 2020: 49J45; 74K10; 74C15

Communicated by Ulisse Stefanelli


Award Identifier / Grant number: 21-06569K

Funding statement: D. Engl acknowledges the financial support by the NDNS + Ph.D. travel grant and would like to thank Carolin Kreisbeck for suggesting this project and sharing some initial ideas. The work of S. Krömer and M. Kružík was supported by the GA ČR project 21-06569K.

Acknowledgements

This work had started while D. Engl was still affiliated with Universiteit Utrecht.

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Received: 2023-01-19
Accepted: 2023-09-20
Published Online: 2024-01-11
Published in Print: 2024-10-01

© 2024 Walter de Gruyter GmbH, Berlin/Boston

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