一般セッション(口頭講演)

[14p-A501-1~12] 【CS.7】 10.1 新物質・新機能創生（作成・評価技術）、10.2 スピン基盤技術・萌芽的デバイス技術、10.3 スピンデバイス・磁気メモリ・ストレージ技術、10.4 半導体スピントロニクス・超伝導・強相関のコードシェアセッション

2020年3月14日(土) 15:45 〜 19:00 A501 (6-501)

△：奨励賞エントリー
▲：英語発表
▼：奨励賞エントリーかつ英語発表
空欄：どちらもなし

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15:45 〜 16:00

▼ [14p-A501-1] Low-current spin-orbit torque switching of W/CoFeB/MgO nanodots by tuning W resistivity

〇Kaito Furuya¹、 Yutaro Takeuchi¹、 Butsurin Jinnai²、 Shunsuke Fukami^1,2,3,4,5、 Ohno Hideo^1,2,3,4,5 (1.RIEC, Tohoku Univ.、2.WPI-AIMR, Tohoku Univ.、3.CIES, Tohoku Univ.、4.CSRN, Tohoku Univ.、5.CSIS, Tohoku Univ.)

16:00 〜 16:15

▲ [14p-A501-2] In-plane magnetization switching detected by spin torque ferromagnetic resonance

〇Motomi Aoki¹、 Yuichiro Ando¹、 Ryo Ohshima¹、 Teruya Shinjo¹、 Masashi Shiraishi¹ (1.Kyoto Univ.)

16:15 〜 16:30

▼ [14p-A501-3] Observation of spin orbit torque magnetization switching without external magnetic field in wire fabricated by magnetic field applied sputtering method

〇Yuichiro Kurokawa¹、 Masakazu Wakae¹、 Masahiro Fujimoto¹、 Masahiro Itoh¹、 Hiromi Yuasa¹ (1.Kyushu Univ.)

16:30 〜 16:45

▼ [14p-A501-4] Ultralow-power spin-orbit torque magnetization switching in all-sputtered BiSb topological insulator – ferromagnet multilayers

〇(P)Nguyen HuynhDuy Khang¹、 Soichiro Nakano¹、 Yasuyoshi Miyamoto^2,4、 Pham Nam Hai^1,3,4 (1.Tokyo Tech.、2.NHK、3.Univ. Tokyo、4.JST-CREST)

16:45 〜 17:00

▲ [14p-A501-5] Improved thermal stability of BiSb pure spin current source for embedded MRAM

〇SOICHIRO NAKANO¹、 Yao Kenichiro¹、 Pham NamHai^1,2,3 (1.Tokyo Tech、2.UTokyo、3.JST)

17:00 〜 17:15

▲ [14p-A501-6] Enhanced current induced domain wall motion through interfacial engineering

〇(D)Yicheng Guan¹、 Xilin Zhou¹、 Tianping Ma¹、 Robin Blaesing¹、 Stuart Parkin¹ (1.Max Planck Institute)

17:30 〜 17:45

▼ [14p-A501-7] Enhancement of spin Hall angle in CuPt alloy systems

〇Keita Nakagawara¹、 Shutaro Karube¹、 Makoto Kohda^1,2、 Junsaku Nitta^1,2 (1.Tohoku Univ.、2.CSRN, Tohoku Univ.)

17:45 〜 18:00

▲ [14p-A501-8] Possibility of the RKKY interaction on the spin Hall effect

〇Shutaro Karube^1,2、 Makoto Kohda^1,2,3、 Junsaku Nitta^1,2,3 (1.Tohoku Univ. Eng.、2.Tohoku Univ. CSRN、3.Tohoku Univ. CSIS)

18:00 〜 18:15

▲ [14p-A501-9] Modulation of magnetic relaxation in Ni₈₀Fe₂₀/Pt bilayer structure using controls on Fermi level by ionic gating

〇(B)Yuto Kosaka¹、 Masayuki Matsushima¹、 Teruya Shinjo¹、 Ryo Ohshima¹、 Yuichiro Ando¹、 Masashi Shiraishi¹ (1.Kyoto Univ.)

18:15 〜 18:30

▲ [14p-A501-10] Spin-orbit torque in sputtered Bi_1-xTe_x/CoFeB bilayers

〇Zhendong Chi^1,2、 Yong-Chang Lau^2,1、 Masamitsu Hayashi^1,2 (1.The Univ. of Tokyo、2.NIMS)

18:30 〜 18:45

▲ [14p-A501-11] Spin-Orbit torque generated from perpendicularly magnetized ferromagnet

〇(P)Yuki Hibino¹、 Takafumi Nakano¹、 Kay Yakushiji¹、 Akio Fukushima¹、 Hitoshi Kubota¹、 Shinji Yuasa¹ (1.AIST)

18:45 〜 19:00

▲ [14p-A501-12] Bias-field-free spin Hall oscillators with an out-of-plane precession mode

〇Takanori Shirokura¹、 Hai Pham Nam^1,2,3 (1.Tokyo Tech.、2.Univ. Tokyo、3.JST-CREST)

セッション一覧

▼ [14p-A501-1] Low-current spin-orbit torque switching of W/CoFeB/MgO nanodots by tuning W resistivity

▲ [14p-A501-2] In-plane magnetization switching detected by spin torque ferromagnetic resonance

▼ [14p-A501-3] Observation of spin orbit torque magnetization switching without external magnetic field in wire fabricated by magnetic field applied sputtering method

▼ [14p-A501-4] Ultralow-power spin-orbit torque magnetization switching in all-sputtered BiSb topological insulator – ferromagnet multilayers

▲ [14p-A501-5] Improved thermal stability of BiSb pure spin current source for embedded MRAM

▲ [14p-A501-6] Enhanced current induced domain wall motion through interfacial engineering

▼ [14p-A501-7] Enhancement of spin Hall angle in CuPt alloy systems

▲ [14p-A501-8] Possibility of the RKKY interaction on the spin Hall effect

▲ [14p-A501-9] Modulation of magnetic relaxation in Ni₈₀Fe₂₀/Pt bilayer structure using controls on Fermi level by ionic gating

▲ [14p-A501-10] Spin-orbit torque in sputtered Bi_1-xTe_x/CoFeB bilayers

▲ [14p-A501-11] Spin-Orbit torque generated from perpendicularly magnetized ferromagnet

▲ [14p-A501-12] Bias-field-free spin Hall oscillators with an out-of-plane precession mode

認証

セッション一覧

▼ [14p-A501-1] Low-current spin-orbit torque switching of W/CoFeB/MgO nanodots by tuning W resistivity

▲ [14p-A501-2] In-plane magnetization switching detected by spin torque ferromagnetic resonance

▼ [14p-A501-3] Observation of spin orbit torque magnetization switching without external magnetic field in wire fabricated by magnetic field applied sputtering method

▼ [14p-A501-4] Ultralow-power spin-orbit torque magnetization switching in all-sputtered BiSb topological insulator – ferromagnet multilayers

▲ [14p-A501-5] Improved thermal stability of BiSb pure spin current source for embedded MRAM

▲ [14p-A501-6] Enhanced current induced domain wall motion through interfacial engineering

▼ [14p-A501-7] Enhancement of spin Hall angle in CuPt alloy systems

▲ [14p-A501-8] Possibility of the RKKY interaction on the spin Hall effect

▲ [14p-A501-9] Modulation of magnetic relaxation in Ni80Fe20/Pt bilayer structure using controls on Fermi level by ionic gating

▲ [14p-A501-10] Spin-orbit torque in sputtered Bi1-xTex/CoFeB bilayers

▲ [14p-A501-11] Spin-Orbit torque generated from perpendicularly magnetized ferromagnet

▲ [14p-A501-12] Bias-field-free spin Hall oscillators with an out-of-plane precession mode

認証

▲ [14p-A501-9] Modulation of magnetic relaxation in Ni₈₀Fe₂₀/Pt bilayer structure using controls on Fermi level by ionic gating

▲ [14p-A501-10] Spin-orbit torque in sputtered Bi_1-xTe_x/CoFeB bilayers