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Nonlinear acoustics in studies of structural features of materials

Published online by Cambridge University Press:  09 May 2019

V.Y. Zaitsev
V.Y. Zaitsev*
Affiliation:
Institute of Applied Physics, Russian Academy of Sciences, Russia; [email protected]
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Abstract

Linear elastic moduli of solids with similar chemical compositions usually vary fairly insignificantly. However, for a broad class of apparently similar materials, their higher-order (nonlinear) moduli may differ by many times or even by orders of magnitude. Besides their large magnitude, nonlinear effects often demonstrate qualitative/functional features inconsistent with predictions of the classical theory of nonlinear elasticity based on consideration of weak lattice (atomic) nonlinearity. The latter is mostly applicable to ideal crystals and flawless amorphous solids, whereas the presence of structural heterogeneities can drastically modify the acoustic nonlinearity of materials without appreciable variation in the linear elastic properties. Despite often rather nontrivial/nonstraightforward relationships between microstructural features of the material and the resultant “nonclassical” acoustic nonlinearity, the extremely high structural sensitivity makes utilization of nonlinear acoustic effects attractive for a broad range of diagnostic applications that have been emerging in recent years in various areas—from seismic sounding and nondestructive testing to materials characterization down to the nanoscale.

Keywords

acousticdefectsfracturefatiguemicrostructure
Type
Acoustic Processes in Materials
Information
MRS Bulletin , Volume 44 , Issue 5: Acoustic Processes in Materials , May 2019 , pp. 350 - 360
Copyright
Copyright © Materials Research Society 2019 

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