Predicting the Adaptation of Biomimetic Auxetic Materials to Mechanical Impact

To descript biomimetic material behavior under localized damage, two novel parameters which characterizing the damage-induced volume change coefficient and the stress concentration coefficient were introduced. A computational methodology was developed to determine these parameters for both isotropic materials and in-plane cross-ply composites. The effect of Poisson’s ratio ν of the materials under consideration on the change in the volume of localized damage and stress concentration under various deformation conditions was investigated. At uniaxial stress state the relative reduction in damage volume under compression of an isotropic auxetic material with ν < 0 is significantly (twofold or more) greater than that of a material having ν > 0. For the cross-ply composite, a range of reinforcement angle variation was identified that is preferable based on the criteria of damage volume and stress concentration parameters.

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Publication Details

Journal
Mechanics of Solids
Published
2026-01-09
DOI
https://doi.org/10.1134/s0025654425605257
Primary Topic
Cellular and Composite Structures
Type
article
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article

Predicting the Adaptation of Biomimetic Auxetic Materials to Mechanical Impact

S. V. Shil’ko, D. A. Chernous
Mechanics of Solids
Cellular and Composite Structures
article

Predicting the Adaptation of Biomimetic Auxetic Materials to Mechanical Impact

S. V. Shil’ko, D. A. Chernous
article en

Abstract

To descript biomimetic material behavior under localized damage, two novel parameters which characterizing the damage-induced volume change coefficient and the stress concentration coefficient were introduced. A computational methodology was developed to determine these parameters for both isotropic materials and in-plane cross-ply composites. The effect of Poisson’s ratio ν of the materials under consideration on the change in the volume of localized damage and stress concentration under various deformation conditions was investigated. At uniaxial stress state the relative reduction in damage volume under compression of an isotropic auxetic material with ν < 0 is significantly (twofold or more) greater than that of a material having ν > 0. For the cross-ply composite, a range of reinforcement angle variation was identified that is preferable based on the criteria of damage volume and stress concentration parameters.

Mechanics of Solids
Institute of Mechanics of Metal-Polymer Systems (BY), Belarusian State University of Transport (BY)
Openalex Percentile: Top 91%
Cellular and Composite Structures
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