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Simple Viscoelastic Model for the Stress Relaxation of Rubber Vulcanizates

Abstract

SEVERAL theories for the description of the long-term transients of stress relaxation of rubber-like polymers have been put forward1 which require complex distribution functions of relaxation and retardation times. Tobolsky and Aklonis1 have postulated that such a complex relaxation modulus arises from torsional vibrations and internal rotations of the chain molecules as well as motions of the entangled rubbery networks. The difficulty inherent in all these theories is either that they fail to explain why the relaxation and retardation spectra do not drop very rapidly or that they require very complex assumptions such as cooperative changes of configuration involving whole groups of polymer strands which become dominant at long intervals of time2.

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References

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CHAPLAIN, R. Simple Viscoelastic Model for the Stress Relaxation of Rubber Vulcanizates. Nature 220, 1028–1029 (1968). https://doi.org/10.1038/2201028a0

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