Anisotropic odd elasticity with Hamiltonian curl forces

Abstract A host of elastic systems consisting of active components exhibit path-dependent elastic behaviors not found in classical elasticity, which is known as odd elasticity. Odd elasticity is characterized by antisymmetric (odd) elastic modulus tensor. Here, from the perspective of geometry, we construct the Hamiltonian formalism to show the origin of the antisymmetry of the elastic modulus that is intrinsically anisotropic. Furthermore, both non-conservative stress and the associated nonlinear constitutive relation naturally arise. This work also opens the promising possibility of exploring the physics of odd elasticity in dynamical regime by Hamiltonian formalism.

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Publication Details

Journal
Journal of Physics A Mathematical and Theoretical
Published
2024-10-16
DOI
https://doi.org/10.1088/1751-8121/ad8790
Primary Topic
Elasticity and Material Modeling
Type
article
Field-Weighted Citation Impact
0.00

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article

Anisotropic odd elasticity with Hamiltonian curl forces

Yi-Heng Zhang, Zhenwei Yao
Journal of Physics A Mathematical and Theoretical
Elasticity and Material Modeling
article

Anisotropic odd elasticity with Hamiltonian curl forces

Yi-Heng Zhang, Zhenwei Yao
article en

Abstract

Abstract A host of elastic systems consisting of active components exhibit path-dependent elastic behaviors not found in classical elasticity, which is known as odd elasticity. Odd elasticity is characterized by antisymmetric (odd) elastic modulus tensor. Here, from the perspective of geometry, we construct the Hamiltonian formalism to show the origin of the antisymmetry of the elastic modulus that is intrinsically anisotropic. Furthermore, both non-conservative stress and the associated nonlinear constitutive relation naturally arise. This work also opens the promising possibility of exploring the physics of odd elasticity in dynamical regime by Hamiltonian formalism.

Journal of Physics A Mathematical and TheoreticalVol. 57(45)
Shanghai Jiao Tong University (CN)
National Natural Science Foundation of China
Openalex Percentile: Top 83%
Elasticity and Material Modeling
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