Poisson’s Ratio in Cubic Materials: A New Representation and Extreme Examples

Abstract Poisson’s ratio ν is defined by two orthogonal directions, one for longitudinal stretch and one for lateral strain. In elastic solids with cubic symmetry, there are only two stretch directions for which ν is independent of the strain direction. All other values of ν in cubic materials can be expressed in terms of these two, ν001 and ν111, which are both restricted to the isotropic limits of −1 and 12. Extreme values of ν, which by definition lie outside the isotropic limits, occur in materials with ν001 close to 12, with the most extreme values in materials with ν111 far from 12. Simple approximate but accurate expressions for the minimum and maximum values of ν are given in terms of ν001 and ν111. Examples of materials with extreme Poisson’s ratio are presented using more than 4,000 cubic materials from the Materials Project database.

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Publication Details

Journal
Journal of Applied Mechanics
Published
2026-02-03
DOI
https://doi.org/10.1115/1.4071000
Primary Topic
Elasticity and Material Modeling
Type
article
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article

Poisson’s Ratio in Cubic Materials: A New Representation and Extreme Examples

Mahadevan Seetharaman, Andrew N. Norris
Journal of Applied Mechanics
Elasticity and Material Modeling
article

Poisson’s Ratio in Cubic Materials: A New Representation and Extreme Examples

Mahadevan Seetharaman, Andrew N. Norris
article en

Abstract

Abstract Poisson’s ratio ν is defined by two orthogonal directions, one for longitudinal stretch and one for lateral strain. In elastic solids with cubic symmetry, there are only two stretch directions for which ν is independent of the strain direction. All other values of ν in cubic materials can be expressed in terms of these two, ν001 and ν111, which are both restricted to the isotropic limits of −1 and 12. Extreme values of ν, which by definition lie outside the isotropic limits, occur in materials with ν001 close to 12, with the most extreme values in materials with ν111 far from 12. Simple approximate but accurate expressions for the minimum and maximum values of ν are given in terms of ν001 and ν111. Examples of materials with extreme Poisson’s ratio are presented using more than 4,000 cubic materials from the Materials Project database.

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Poisson’s Ratio in Cubic Materials: A New Representation and Extreme Examples — Mahadevan Seetharaman, Andrew N. Norris · Journal of Applied Mechanics (2026) | TGRS Research Map | TGRS