Attenuation of propagating spin wave induced by layered nanostructures

K. Sekiguchi; T.N. Vader; K. Yamada; S. Fukami; N. Ishiwata; S.M. Seo; S.W. Lee; K.J. Lee; T. Ono

doi:10.1063/1.3699020

Attenuation of propagating spin wave induced by layered nanostructures

K. Sekiguchi
, T.N. Vader
, K. Yamada
, S. Fukami
, N. Ishiwata
, S.M. Seo
, S.W. Lee
, K.J. Lee
, T. Ono

Research output: Contribution to journal › Article › Academic › peer-review

4 Citations (Scopus)

215 Downloads (Pure)

Abstract

Spin wave attenuation in the layered left perpendicularFeNi/Ptright perpendicular(6)/FeNi thin films was investigated by the time-domain electrical measurement. The spin-wave waveform was detected with an asymmetric coplanar strip transmission line, as an induced voltage flowing into a fast oscilloscope. We report that the amplitude of a spin-wave packet was systematically changed by controlling the thickness of a platinum layer, up to a maximum change of 50%. The virtues of spin wave, ultrafast propagation velocity and non-reciprocal emission, are preserved in this manner. This means that the Pt layer can manipulate an arbitral power-level of spin-wave input signal (reliable attenuator).

Original language	English
Article number	132411
Pages (from-to)	132411-1/3
Number of pages	3
Journal	Applied Physics Letters
Volume	100
Issue number	13
DOIs	https://doi.org/10.1063/1.3699020
Publication status	Published - 2012

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title = "Attenuation of propagating spin wave induced by layered nanostructures",

abstract = "Spin wave attenuation in the layered left perpendicularFeNi/Ptright perpendicular(6)/FeNi thin films was investigated by the time-domain electrical measurement. The spin-wave waveform was detected with an asymmetric coplanar strip transmission line, as an induced voltage flowing into a fast oscilloscope. We report that the amplitude of a spin-wave packet was systematically changed by controlling the thickness of a platinum layer, up to a maximum change of 50\%. The virtues of spin wave, ultrafast propagation velocity and non-reciprocal emission, are preserved in this manner. This means that the Pt layer can manipulate an arbitral power-level of spin-wave input signal (reliable attenuator).",

author = "K. Sekiguchi and T.N. Vader and K. Yamada and S. Fukami and N. Ishiwata and S.M. Seo and S.W. Lee and K.J. Lee and T. Ono",

year = "2012",

doi = "10.1063/1.3699020",

language = "English",

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journal = "Applied Physics Letters",

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T1 - Attenuation of propagating spin wave induced by layered nanostructures

AU - Sekiguchi, K.

AU - Vader, T.N.

AU - Yamada, K.

AU - Fukami, S.

AU - Ishiwata, N.

AU - Seo, S.M.

AU - Lee, S.W.

AU - Lee, K.J.

AU - Ono, T.

PY - 2012

Y1 - 2012

N2 - Spin wave attenuation in the layered left perpendicularFeNi/Ptright perpendicular(6)/FeNi thin films was investigated by the time-domain electrical measurement. The spin-wave waveform was detected with an asymmetric coplanar strip transmission line, as an induced voltage flowing into a fast oscilloscope. We report that the amplitude of a spin-wave packet was systematically changed by controlling the thickness of a platinum layer, up to a maximum change of 50%. The virtues of spin wave, ultrafast propagation velocity and non-reciprocal emission, are preserved in this manner. This means that the Pt layer can manipulate an arbitral power-level of spin-wave input signal (reliable attenuator).

AB - Spin wave attenuation in the layered left perpendicularFeNi/Ptright perpendicular(6)/FeNi thin films was investigated by the time-domain electrical measurement. The spin-wave waveform was detected with an asymmetric coplanar strip transmission line, as an induced voltage flowing into a fast oscilloscope. We report that the amplitude of a spin-wave packet was systematically changed by controlling the thickness of a platinum layer, up to a maximum change of 50%. The virtues of spin wave, ultrafast propagation velocity and non-reciprocal emission, are preserved in this manner. This means that the Pt layer can manipulate an arbitral power-level of spin-wave input signal (reliable attenuator).

U2 - 10.1063/1.3699020

DO - 10.1063/1.3699020

M3 - Article

SN - 0003-6951

VL - 100

SP - 132411-1/3

JO - Applied Physics Letters

JF - Applied Physics Letters

IS - 13

M1 - 132411

ER -

Attenuation of propagating spin wave induced by layered nanostructures

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