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Mechanical state of elastin

Abstract

WE describe experiments in which the mechanical state of elastin was determined in conditions comparable to those used by Weis-Fogh and Anderson1,2. In their mechanocalorimetric experiments a strain was imposed on a specimen immersed in diluent in a calorimeter, maintained for several hundred seconds, and then released. Measurements of heat release led them to reject the classical theory of rubber elasticity3–6 which, for solvated elastin, they replaced by a new model, the liquiddrop elastomer. There is, however, good evidence that in neglecting the differential heat of solution Weis-Fogh and Anderson neglected a dominant source of heat release7,8. Our purpose is to examine the alternative assumption, that elastin conforms to the classical theory of rubber elasticity in the experimental conditions they studied.

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DORRINGTON, K., GRUT, W. & McCRUM, N. Mechanical state of elastin. Nature 255, 476–478 (1975). https://doi.org/10.1038/255476a0

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