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BS 903-5:2004

$189.07

Physical testing of rubber – Guide to the application of rubber testing to finite element analysis

Published By Publication Date Number of Pages
BSI 2004 48
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This part of BS 903 gives recommendations for test procedures and guidance on appropriate methods for determining model parameters from test data for use in finite element analysis (FEA) of rubber. It covers stress–strain characterization, mechanical failure, friction, thermal properties and heat build-up.

It is applicable to solid vulcanized rubbers of hardness 20 to 80 IRHD for which the deformation is predominantly elastic, and to cellular materials formed using such rubbers. It might prove useful for other materials which can be deformed elastically to large strain.

PDF Catalog

PDF Pages PDF Title
1 BRITISH STANDARD
2 Committees responsible for this British�Standard
3 Contents
5 1 Scope
2 Normative references
3 Terms and definitions
3.1 finite element analysis FEA
6 3.2 deformation mode
3.3 deviatoric deformation
3.4 volumetric deformation
3.5 extension ratio
3.6 hyperelastic
3.7 incompressible
3.8 model
3.9 model
3.10 principal strain axis
3.11 principal stress
3.12 principal extension ratio
3.13 principal stress axis
7 3.14 stable
3.15 stiffness
3.16 strain energy function
3.17 strain invariant
4 Symbols
5 Introduction to FEA
8 6 Stress–strain behaviour
6.1 Solid (incompressible) rubbers
12 6.2 Cellular rubbers
13 6.3 Limitations of hyperelastic models and alternative modelling techniques
14 6.4 Recommended deviatoric tests for obtaining parameters for hyperelastic models
Figure 1
17 Figure 2
18 Figure 3
19 Figure 4
6.5 Recommended test methods for obtaining a value for the bulk modulus
21 Figure 5
22 6.6 Recommended tests for obtaining parameters for large strain viscoelastic models
6.7 Fitting procedures
23 7 Mechanical failure
7.1 Introduction
7.2 The energetics, or fracture-mechanics approach
25 7.3 Test pieces for characterizing the crack growth behaviour of rubber
26 Table 1 Fracture test pieces for rubber
35 7.4 Material test for fatigue of rubber
7.5 Calculation of strain energy release rate using FEA
36 8 Friction
8.1 Introduction
37 8.2 Test methods
9 Thermal properties
9.1 General
38 9.2 Thermal conductivity
9.3 Specific heat capacity
39 9.4 Density
9.5 Contact resistances and film coefficients
9.6 Heat of vulcanization
40 10 Heat build-up
41 Annex A (informative)
Stress-extension relationships in simple deformations�and parameter optimization
42 Annex B (informative)
Relationship between stress in simple shear and pure�shear
Annex C (informative)
An example of fitting models to experimental data
Table C.1 Constants derived from fits to uniaxial tension data
43 Figure C.1
44 Figure C.2
45 Figure C.3
BS 903-5:2004
$189.07