2004
DOI: 10.1002/app.20029
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A visco‐hyperelastic constitutive model to characterize both tensile and compressive behavior of rubber

Abstract: ABSTRACT:The strain rate-dependent finite deformation behavior of three types of rubber under tension and compression are experimentally characterized using a Hopkinson bar. Based on the measured data, a frame-independent incompressible visco-hyperelastic constitutive equation is proposed to describe the tensile and compressive responses of rubber under high strain rates. The equation comprises two parts: a three-parameter component based on an elastic strain energy potential, to characterize static hyperelast… Show more

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Cited by 88 publications
(47 citation statements)
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“…Many forms of nonlinear viscoelastic constitutive models have been developed to describe time/rate-dependent, large deformation behavior of polymers (e.g., Bergström and Boyce, 1998;Boyce et al, 2000;Drozdov and Gupta, 2003;Shim et al, 2004;Dusunceli and Colak, 2006;Ayoub et al, 2010). For the PN model as discussed in Section 4.1, the material parameters include B; m; n, and two shear moduli, l A and l B .…”
Section: Nonlinear Viscoelastic Materialsmentioning
confidence: 99%
“…Many forms of nonlinear viscoelastic constitutive models have been developed to describe time/rate-dependent, large deformation behavior of polymers (e.g., Bergström and Boyce, 1998;Boyce et al, 2000;Drozdov and Gupta, 2003;Shim et al, 2004;Dusunceli and Colak, 2006;Ayoub et al, 2010). For the PN model as discussed in Section 4.1, the material parameters include B; m; n, and two shear moduli, l A and l B .…”
Section: Nonlinear Viscoelastic Materialsmentioning
confidence: 99%
“…Materials which have been well-studied in the literature are silicone elastomers [13,66,151], plasticized PVC [152,153] and polyureas [39,40,72,[154][155][156][157][158][159] and polyurethanes [160][161][162]. The rate dependence of these materials depends strongly on the glass transition, and in particular whether this transition affects the room temperature response at strain rates of interest.…”
Section: Rubbery Amorphous Polymersmentioning
confidence: 99%
“…Hoo-Fatt and Ouyang [27] tested styrene butadiene rubber in dynamic tensile tests in the strain rate domain of 76 s −1 to 450 s −1 and found significant strain rate effects, which were covered in their Abaqus/Explicit model by viscoelastic terms. Silicone rubber with identical Shore hardness values as in the current study (SHA-40, SHA-60 and SHA-80) was tested by Shim et al [28] in dynamic tensile and compression tests at strain rates from 10 −2 s −1 to 3,300 s −1 on a Split-Hopkinson bar with significantly increased forces for higher loading rates. Again, the strain rate effect was covered in their numerical model by viscoelastic terms.…”
Section: Strain Rate Effects (Dynamic Loading)mentioning
confidence: 99%