Elementary models of the “flux driven anti-ripening” during nanobelt growth

The anisotropic formation of elongated metal-oxide aggregates in water under intensive stirring is analyzed. It is treated in terms of anisotropic ballistically mediated aggregation kinetics in open systems. The basic kinetic equations describing the stages of homogeneous nucleation, independent growth, and ripening of the aggregates are formulated for the open system under the external influence with the stirring intensity as the main parameter governing the process. The most significant elongation of the aggregates is shown to evolve at the ripening stage.

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Anisotropic Nucleation, Growth and Ripening under Stirring—A Phenomenological Model

Гусак

Huriev

Schmelzer

2020

Entropy

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Elementary models of the “flux driven anti-ripening” during nanobelt growth

Abstract: We develop phenomenological models describing the controllable growth of elongated nanostructures by a stirring hydrothermal approach.

Cited by 1 publication

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Anisotropic Nucleation, Growth and Ripening under Stirring—A Phenomenological Model

Anisotropic Nucleation, Growth and Ripening under Stirring—A Phenomenological Model

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