Abstract
The oscillatory tests described in this chapter belong to the general framework of dynamic measurements in which both stress and strain vary harmonically with time. The relevant strains are small enough to be in the limits of linear viscoelasticity: the mathematical theory of linear viscoelasticity [1] constitutes the formal analytical tool which will be used to analyse the experimental data. This theory gives exact interrelations between the various material functions defined in the time and frequency domains, so in principle the measurement of a single visco-elastic function constitutes a complete linear viscoelastic characterization. But the picture is not so simple, as each rheometrical technique explores a limited range of times or frequencies: so the various experimental and analytical methods in this chapter are often complementary, as will be explained in detail. Hence this family of rheological techniques may be defined as mechanical spectroscopy with a mathematical formalism which is very close to those of other spectroscopic methods in physics and physical chemistry.
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Marin, G. (1998). Oscillatory rheometry. In: Collyer, A.A., Clegg, D.W. (eds) Rheological Measurement. Springer, Dordrecht. https://doi.org/10.1007/978-94-011-4934-1_1
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