Electroconductivity of silicone-based elastomer filled with magnetically hard particles

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Abstract

Silicone-based elastomer containing Nd-Fe-B-alloy particles garnished with a small portion of nickel grains has been studied for the capability to conduct alternating current. The observations suggest that the presence of nickel expands the variation range of the conductivity and magnetocapacitance in external magnetic fields. In addition, the composite demonstrates the memory of primary magnetizing manifesting itself as certain specific features of the hysteresis loops depending on the polarity of the external magnetic field.

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About the authors

A. V. Bakhtiiarov

Russian State Scientific Institute for Chemical Technologies of Organoelement Compounds

Author for correspondence.
Email: abakhtia@gmail.com
Russian Federation, Moscow

G. V. Stepanov

Russian State Scientific Institute for Chemical Technologies of Organoelement Compounds

Email: abakhtia@gmail.com
Russian Federation, Moscow

D. A. Lobanov

Russian State Scientific Institute for Chemical Technologies of Organoelement Compounds

Email: abakhtia@gmail.com
Russian Federation, Moscow

D. A. Semerenko

Bauman Moscow State Technical University

Email: abakhtia@gmail.com
Russian Federation, Moscow

P. A. Storozhenko

Russian State Scientific Institute for Chemical Technologies of Organoelement Compounds

Email: abakhtia@gmail.com
Russian Federation, Moscow

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Supplementary files

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2. Fig. 1. Field dependence curves of the specific active resistance ρ (a) and magnetocapacitance ε (b) of the isotropic sample MAE No. 1 during magnetization reversal according to the scheme "antiparallel orientation → parallel orientation". In this and the following figures, the orientation of the external field (large arrow) relative to the direction of the initial magnetization of the sample (small arrow) is shown by round symbols when the sample passes through the next cycle.

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3. Fig. 2. Field dependence curves of specific active resistance ρ (a) and magnetocapacitance ε (b) of anisotropic sample MAE No. 2 during magnetization reversal according to the scheme “antiparallel orientation → parallel orientation”.

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4. Fig. 3. Field dependence curves of specific active resistance ρ (a) and magnetocapacitance ε (b) of anisotropic sample MAE No. 3 during magnetization reversal according to the scheme “antiparallel orientation → parallel orientation”.

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