Nanostructuring of an Aluminum Alloy and Investigation of the Mechanical Properties of the Resulting Al/C60 Nanocomposite

The nanostructuring of an AMg6 aluminum alloy is carried out by the method of severe plastic deformation via the hot extrusion of a billet made of pressed nanocomposite powder, which is obtained by the dispersion of a mixture of alloy chips and C 60 fullerite powder in a planetary ball mill. The str...

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Veröffentlicht in:Nanobiotechnology Reports (Online) 2022-08, Vol.17 (4), p.523-528
Hauptverfasser: Prokhorov, V. M., Evdokimov, I. A., Korobov, A. I., Kokshaisky, A. I., Odina, N. I., Shirgina, N. V.
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Sprache:eng
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Zusammenfassung:The nanostructuring of an AMg6 aluminum alloy is carried out by the method of severe plastic deformation via the hot extrusion of a billet made of pressed nanocomposite powder, which is obtained by the dispersion of a mixture of alloy chips and C 60 fullerite powder in a planetary ball mill. The structural features of the resulting n -AMg6/C 60 nanocomposite are investigated. Experimental studies of the mechanical characteristics of the n -AMg6/C 60 nanocomposite are presented. The stress–strain curves σ = σ(ε) are measured for the nanostructured composite samples upon a cyclic variation in the stress applied to the samples. During the experiments, almost no residual deformations are detected in the samples of n -AMg6/C 60 composite, and the stress–strain curves do not contain regions corresponding to plastic deformation. It is established that reversible mechanical loading–unloading of the samples of AMg6/C 60 causes their hardening. These data are supplemented by measurements of the microhardness and changes in the velocity of longitudinal elastic waves upon a cyclic variation in the load on the sample.
ISSN:2635-1676
1995-0780
2635-1684
1995-0799
DOI:10.1134/S263516762204019X