Relation between the size dependences of the melting and crystallization temperatures of metallic nanoparticles

Sdobnyakov, N.Yu.; Sokolov, D. N.; Bazulev, A. N.; Samsonov, V. M.; Zykov, T.Yu.; Антонов, Александр Сергеевич

doi:10.1134/s0036029513020110

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Cited by 8 publications

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“…This corresponds to the undeveloped fractal relief and the values obtained for magnetically soft materials [8]. The average fractal dimension for scales of up to 5 × 5 μm was virtually the same, confirming the adequacy of the procedure described in [16][17][18][19] for determining the fractal dimension at different scales. However, areas with fractal dimensions of up to 2.46 were observed when analyzing larger scales of surface agglomerates (particularly 5 × 5 μm).…”

Section: Dsupporting

confidence: 75%

Fractal Geometry of the Nano- and Magnetic Domain Structures of Sm–Co–Cu–Fe Ferromagnetic Alloy in a High Coercive State

Semenova

Иванов

Lyakhova

et al. 2021

Bull. Russ. Acad. Sci. Phys.

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Results are presented from an analysis of the nano-and magnetic domain structures of high coercive Sm(CoCuFe) 5 alloy using fractal geometry. Fractal dimension D f of the nano-and domain structures are determined at different stages of heat treatment. It is shown that D f ~ 2.08 corresponds to the nanostructure of samples with a coercive force of 7 kOe, while D f ~ 2.3 corresponds to the nanostructure of samples with a coercive force of 32 kOe.

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Section: Dsupporting

confidence: 75%