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Open AccessJournal ArticleDOI

Large elastic deformations of isotropic materials IV. further developments of the general theory

R. S. Rivlin
- 05 Oct 1948 - 
- Vol. 241, Iss: 835, pp 379-397
TLDR
In this article, the surface forces necessary to produce simple shear in a cuboid of either compressible or incompressible material and those required to generate simple torsion in a right-circular cylinder of incompressibly material are derived.
Abstract
The equations of motion, boundary conditions and stress-strain relations for a highly elastic material can be expressed in terms of the stored-energy function. This has been done in part I of this series (Rivlin 1948 a ), for both the cases of compressible and incompressible materials, following the methods given by E. & F. Cosserat for compressible materials. The stored-energy function may be defined for a particular material in terms of the invariants of strain. The form in which the equations of motion, etc., are deduced, in the previous paper, does not permit the evaluation of the forces necessary to produce a specified deformation unless the actual expression for the stored-energy function in terms of the scalar invariants of the strain is introduced. In the present paper, the equations are transformed into forms more suitable for carrying out such an explicit evaluation. As examples, the surface forces necessary to produce simple shear in a cuboid of either compressible or incompressible material and those required to produce simple torsion in a right-circular cylinder of incompressible material are derived.

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The non-linear field theories of mechanics

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A three-dimensional constitutive model for the large stretch behavior of rubber elastic materials

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Non-Linear Finite Element Analysis of Solids and Structures: de Borst/Non-Linear Finite Element Analysis of Solids and Structures

TL;DR: De Borst et al. as mentioned in this paper present a condensed version of the original book with a focus on non-linear finite element technology, including nonlinear solution strategies, computational plasticity, damage mechanics, time-dependent effects, hyperelasticity and large-strain elasto-plasticity.
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Mechanical properties of solid polymers

I. M. Ward
TL;DR: A concise, self-contained introduction to solid polymers, the mechanics of their behavior and molecular and structural interpretations can be found in this article, which provides extended coverage of recent developments in rubber elasticity, relaxation transitions, non-linear viscoelastic behavior, anisotropic mechanical behavior, yield behavior of polymers and other fields.
References
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Journal ArticleDOI

A Theory of Large Elastic Deformation

TL;DR: In this paper, it was deduced that the general strain energy function, W, has the form W=G4 ∑ i=13(λi−1λi)2+H 4 ∑ t=13 (λi2−1 ε)2 + H 4, where the λi's are the principal stretches, G is the modulus of rigidity, and H is a new elastic constant not found in previous theories.
Journal ArticleDOI

Large Elastic Deformations of Isotropic Materials. III. Some Simple Problems in Cylindrical Polar Co-Ordinates

TL;DR: In this article, the authors studied the properties of simple torsion of a solid cylinder and of a hollow, cylindrical tube, and their combined simple extension and simple Torsion, and obtained the stress-strain relations and boundary conditions for an incompressible, neo-Hookean material.
Journal ArticleDOI

Finite strain in elastic problems

TL;DR: In this paper, the authors considered the problem of finding the components of strain corresponding with any displacement in elastic solid bodies, where the displacement is finite and the strain produced is not small enough to justify the assumption.
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