Oral presentation

10 Spintronics and Magnetics » 10.2 Fundamental and exploratory device technologies for spin

[22a-A205-1~11] 10.2 Fundamental and exploratory device technologies for spin

Thu. Sep 22, 2022 9:00 AM - 12:00 PM A205 (A205)

Tomohiro Taniguchi(AIST), Shutaro Karube(東北大)

△：Presentation by Applicant for JSAP Young Scientists Presentation Award
▲：English Presentation
▼：Both of Above
No Mark：None of Above

+Add all to schedule

9:00 AM - 9:15 AM

▲ [22a-A205-1] Detection of thermal magnon current mediated by coherent magnon via spin qubits in diamond

〇Dwi Prananto¹, Yuta Kainuma¹, Kunitaka Hayashi¹, Norikazu Mizuochi², Ken-ichi Uchida^3,4, Toshu An¹ (1.JAIST, 2.Kyoto Univ., 3.NIMS, 4.IMR Tohoku Univ.)

9:15 AM - 9:30 AM

[22a-A205-2] Induced current of Meander antenna at the time of spin wave detection

〇(M2)Taiga Hara¹, Kenji Kasahara¹, Takashi Manago¹ (1.Fukuoka Univ.)

9:30 AM - 9:45 AM

[22a-A205-3] Enhancement of attenuation length for MSSWs propagating in a Py medium by a Cu capping layer

〇(M2)Kazuma Sonobata¹, Kenji Kasahara¹, Takashi Manago¹ (1.Fukuoka Univ.)

9:45 AM - 10:00 AM

▼ [22a-A205-4] Observation of nonlinear spin-wave dynamics by magneto-optical imaging

〇Kosuke Umemura¹, Tomosato Hioki², Koujirou Hoshi^1,3, Eiji Saitoh^1,2,3 (1.Dept. Appl. Phys., Univ. Tokyo, 2.AIMR, Tohoku Univ., 3.Inst. AI and Beyond, Univ. Tokyo)

10:00 AM - 10:15 AM

△ [22a-A205-5] Generation Process of Magnon Condensates in Wavevector Space

〇(M2)Shoki Nezu¹, Koshi Oda¹, Koji Sekiguchi¹ (1.Yokohama Nat. Univ.)

10:15 AM - 10:30 AM

△ [22a-A205-6] Generating process of magnon Bose-Einstein condensation in cubic anisotropic materials

〇(M2)Koshi Oda¹, Thomas Scheike², Sukegawa Hiroaki², Sekiguchi Koji¹ (1.Yokohama Nat. Univ., 2.NIMS)

10:45 AM - 11:00 AM

△ [22a-A205-7] Generation of Spin-wave Soliton Trains by Self-modulation Instability

〇(M2)Takuro Eguchi¹, Koji Sekiguchi¹ (1.Yokohama Nat. Univ.)

11:00 AM - 11:15 AM

[22a-A205-8] Theory for sum-frequency generation of microwaves by a spatial coherence between the spin waves and electromagnetic fields in magnetic thin films

〇Koki Horii¹, Kenta Kato², Tomohiro Yokoyama², Hajime Ishihara² (1.Osaka Pref. Univ., 2.Osaka Univ.)

11:15 AM - 11:30 AM

[22a-A205-9] Evaluation of local magnetization precession and spin-wave interaction using ST-FMR

〇Tetsunori Koda¹, Sho Muroga², Yasushi Endo³ (1.Nat. Inst. Tech., Oshima Coll., 2.Akita Univ., 3.Tohoku Univ.)

11:30 AM - 11:45 AM

▲ [22a-A205-10] Magnonic cross-bar interference-based reconfigurable logic gate

〇(DC)shamim sarker¹, Lihao Yao¹, Kaijie Ma¹, Hiroyasu Yamahara¹, Siyi Tang¹, Kenyu Terao¹, Zhiqiang Liao¹, Munetoshi Seki¹, Hitoshi Tabata¹ (1.Tokyo Univ)

11:45 AM - 12:00 PM

▼ [22a-A205-11] Implementation of a highly sensitive magnetic sensor using CoFeB/Y₃Fe₅O₁₂ bilayer magnonic resonator

〇(DC)shamim sarker¹, Hiroyasu Yamahara¹, Lihao Yao¹, Siyi Tang¹, Zhiqiang Liao¹, Munetoshi Seki¹, Hitoshi Tabata¹ (1.Tokyo Univ)

Session information

[22a-A205-1~11] 10.2 Fundamental and exploratory device technologies for spin

▲ [22a-A205-1] Detection of thermal magnon current mediated by coherent magnon via spin qubits in diamond

[22a-A205-2] Induced current of Meander antenna at the time of spin wave detection

[22a-A205-3] Enhancement of attenuation length for MSSWs propagating in a Py medium by a Cu capping layer

▼ [22a-A205-4] Observation of nonlinear spin-wave dynamics by magneto-optical imaging

△ [22a-A205-5] Generation Process of Magnon Condensates in Wavevector Space

△ [22a-A205-6] Generating process of magnon Bose-Einstein condensation in cubic anisotropic materials

△ [22a-A205-7] Generation of Spin-wave Soliton Trains by Self-modulation Instability

[22a-A205-8] Theory for sum-frequency generation of microwaves by a spatial coherence between the spin waves and electromagnetic fields in magnetic thin films

[22a-A205-9] Evaluation of local magnetization precession and spin-wave interaction using ST-FMR

▲ [22a-A205-10] Magnonic cross-bar interference-based reconfigurable logic gate

▼ [22a-A205-11] Implementation of a highly sensitive magnetic sensor using CoFeB/Y₃Fe₅O₁₂ bilayer magnonic resonator

Authenticate

Session information

[22a-A205-1~11] 10.2 Fundamental and exploratory device technologies for spin

▲ [22a-A205-1] Detection of thermal magnon current mediated by coherent magnon via spin qubits in diamond

[22a-A205-2] Induced current of Meander antenna at the time of spin wave detection

[22a-A205-3] Enhancement of attenuation length for MSSWs propagating in a Py medium by a Cu capping layer

▼ [22a-A205-4] Observation of nonlinear spin-wave dynamics by magneto-optical imaging

△ [22a-A205-5] Generation Process of Magnon Condensates in Wavevector Space

△ [22a-A205-6] Generating process of magnon Bose-Einstein condensation in cubic anisotropic materials

△ [22a-A205-7] Generation of Spin-wave Soliton Trains by Self-modulation Instability

[22a-A205-8] Theory for sum-frequency generation of microwaves by a spatial coherence between the spin waves and electromagnetic fields in magnetic thin films

[22a-A205-9] Evaluation of local magnetization precession and spin-wave interaction using ST-FMR

▲ [22a-A205-10] Magnonic cross-bar interference-based reconfigurable logic gate

▼ [22a-A205-11] Implementation of a highly sensitive magnetic sensor using CoFeB/Y3Fe5O12 bilayer magnonic resonator

Authenticate

▼ [22a-A205-11] Implementation of a highly sensitive magnetic sensor using CoFeB/Y₃Fe₅O₁₂ bilayer magnonic resonator