Misfit stabilized embedded nanoparticles in metallic alloys

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Abstract

Nanoscale inhomogeneities are typical for numerous metallic alloys and crucially important for their practical applications. At the same time, stabilization mechanisms of such a state are poorly understood. We present a general overview of the problem, together with a more detailed discussion of the prototype example, namely, Guinier-Preston zones in Al-based alloys. It is shown that coherent strain due to a misfit between inclusion and host crystal lattices plays a decisive role in the emergence of the inhomogeneous state. We suggest a model explaining the formation of ultrathin plates (with the thickness of a few lattice constants) typical for Al-Cu alloys. Discreteness of the array of misfit dislocations and long-ranged elastic interactions between them are the key ingredients of the model. This opens a way for a general understanding of the nature of (meta)stable embedded nanoparticles in practically important systems.

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Gornostyrev, Y. N., & Katsnelson, M. I. (2015). Misfit stabilized embedded nanoparticles in metallic alloys. Physical Chemistry Chemical Physics. Royal Society of Chemistry. https://doi.org/10.1039/c5cp04641f

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