Reduction of magnetostatic interactions in self-organized arrays of nickel nanowires using atomic layer deposition

Reduction of magnetostatic interactions in self-organized arrays of nickel nanowires using atomic layer deposition

Ordered arrays of magnetic nanowires are commonly synthesized by electrodeposition in nanoporous alumina templates. Due to their dense packing, strong magnetostatic interactions prevent the manipulation of wires individually. Using atomic layer deposition we reduce the diameter of the pores prior to...

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Veröffentlicht in:Applied physics letters 2011-03, Vol.98 (11), p.112501-112501-3
Hauptverfasser: Da Col, S., Darques, M., Fruchart, O., Cagnon, L.
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Condensed Matter
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container_title Applied physics letters
container_volume 98
creator Da Col, S.
Darques, M.
Fruchart, O.
Cagnon, L.
description Ordered arrays of magnetic nanowires are commonly synthesized by electrodeposition in nanoporous alumina templates. Due to their dense packing, strong magnetostatic interactions prevent the manipulation of wires individually. Using atomic layer deposition we reduce the diameter of the pores prior to electrodeposition. This reduces magnetostatic interactions, yielding fully remanent hysteresis loops. This is a first step toward the use of such arrays for magnetic racetrack memories.
doi_str_mv 10.1063/1.3562963
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subjects Condensed Matter
Materials Science
Physics
title Reduction of magnetostatic interactions in self-organized arrays of nickel nanowires using atomic layer deposition
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