Nonlinear acoustic properties of the B95 aluminum alloy and the B95/nanodiamond composite

Research results for the nonlinear acoustic properties of the B95 polycrystalline aluminum alloy and the B95/nanodiamond composite have been described. The nonlinear properties of the alloys have been studied by the spectral method that measures the efficiency of generation of the second harmonic of...

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Veröffentlicht in:Acoustical physics 2016-11, Vol.62 (6), p.681-687
Hauptverfasser: Korobov, A. I., Prokhorov, V. M.
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description Research results for the nonlinear acoustic properties of the B95 polycrystalline aluminum alloy and the B95/nanodiamond composite have been described. The nonlinear properties of the alloys have been studied by the spectral method that measures the efficiency of generation of the second harmonic of a bulk acoustic wave at a frequency of 2 f = 10 MHz in the field of a finite-amplitude longitudinal acoustic wave at a frequency of f = 5 MHz. The results derived by this method have been compared with the results of studies of the nonlinear acoustic properties of the test alloys using the Thurston–Brugger quasi-static method.
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subjects Acoustic measurement
Acoustic properties
Acoustic waves
Acoustics
Aluminum base alloys
Diamonds
Efficiency
Harmonics
Nanostructure
Nonlinear Acoustics
Nonlinearity
Physics
Physics and Astronomy
Spectral methods
Test procedures
title Nonlinear acoustic properties of the B95 aluminum alloy and the B95/nanodiamond composite
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