Fast current-induced motion of a transverse domain wall induced by interfacial DzyaloshinskiieMoriya interaction

Based on a theoretical study, we show that the interfacial DzyaloshinskiieMoriya interaction results in very efficient current-induced Based on a theoretical study, we show that the interfacial DzyaloshinskiieMoriya interaction results in very efficient current-induced manipulation of a transverse d...

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Veröffentlicht in:Current applied physics 2015, 15(10), , pp.1139-1142
Hauptverfasser: 이서원, 박병국, 이경진
Format: Artikel
Sprache:eng
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Zusammenfassung:Based on a theoretical study, we show that the interfacial DzyaloshinskiieMoriya interaction results in very efficient current-induced Based on a theoretical study, we show that the interfacial DzyaloshinskiieMoriya interaction results in very efficient current-induced manipulation of a transverse domain wall in magnetic nanowires. The efficient domain wall motion is caused by combined effects of the domain wall distortion induced by the interfacial DzyaloshinskiieMoriya interaction and the damping-like spineorbit spin transfer torque. We find that with reasonable parameters, the domain wall velocity reaches a few hundreds m/s at the current density of 107 A/cm2, which has never been achieved before. Our result will be beneficial for lowpower operation of domain wall devices. Based on a theoretical study, we show that the interfacial DzyaloshinskiieMoriya interaction results in very efficient current-induced manipulation of a transverse domain wall in magnetic nanowires. The efficient domain wall motion is caused by combined effects of the domain wall distortion induced by the interfacial DzyaloshinskiieMoriya interaction and the damping-like spineorbit spin transfer torque. We find that with reasonable parameters, the domain wall velocity reaches a few hundreds m/s at the current density of 107 A/cm2, which has never been achieved before. Our result will be beneficial for lowpower operation of domain wall devices. KCI Citation Count: 4
ISSN:1567-1739
1878-1675