Research paperTheoreticalComputational Kinetic ModelSpin Seebeck Effect in GrapheneXin Hu, Yuya Ominato, Mamoru MatsuoarXiv preprint·2024·10.1103/PhysRevB.110.245308·arXiv:2409.18456AbstractWe develop a microscopic theory of the spin Seebeck effect (SSE) at the interface of a bilayer system of a ferromagnetic insulator and graphene. We compare the tunneling spin current at the interface because of the SSE and the spin pumping (SP), where the SSE and SP are induced by the temperature gradient and the microwave irradiation, respectively. We demonstrate that the thermally driven SSE exhibits a quantum oscillation pattern similar to that predicted in coherently driven SP. Additionally, we show a peak shift of the quantum oscillation owing to the contribution of thermally excited magnons with higher frequencies, which becomes particularly pronounced at higher temperatures.Read more
Theoretical graphene/ferromagnetic-insulator bilayer interface studied microscopically for spin Seebeck and spin pumping transport.No measurements recordedSimulatedCStudied MaterialFerromagnetic insulatorStudied MaterialExpand
Research paperTheoreticalComputational Kinetic ModelSpin Seebeck Effect in GrapheneXin Hu, Yuya Ominato, Mamoru MatsuoarXiv preprint·2024·10.1103/PhysRevB.110.245308·arXiv:2409.18456AbstractWe develop a microscopic theory of the spin Seebeck effect (SSE) at the interface of a bilayer system of a ferromagnetic insulator and graphene. We compare the tunneling spin current at the interface because of the SSE and the spin pumping (SP), where the SSE and SP are induced by the temperature gradient and the microwave irradiation, respectively. We demonstrate that the thermally driven SSE exhibits a quantum oscillation pattern similar to that predicted in coherently driven SP. Additionally, we show a peak shift of the quantum oscillation owing to the contribution of thermally excited magnons with higher frequencies, which becomes particularly pronounced at higher temperatures.Read more
Theoretical graphene/ferromagnetic-insulator bilayer interface studied microscopically for spin Seebeck and spin pumping transport.No measurements recordedSimulatedCStudied MaterialFerromagnetic insulatorStudied MaterialExpand
Research paperTheoreticalComputational Kinetic ModelSpin Seebeck Effect in GrapheneXin Hu, Yuya Ominato, Mamoru MatsuoarXiv preprint·2024·10.1103/PhysRevB.110.245308·arXiv:2409.18456AbstractWe develop a microscopic theory of the spin Seebeck effect (SSE) at the interface of a bilayer system of a ferromagnetic insulator and graphene. We compare the tunneling spin current at the interface because of the SSE and the spin pumping (SP), where the SSE and SP are induced by the temperature gradient and the microwave irradiation, respectively. We demonstrate that the thermally driven SSE exhibits a quantum oscillation pattern similar to that predicted in coherently driven SP. Additionally, we show a peak shift of the quantum oscillation owing to the contribution of thermally excited magnons with higher frequencies, which becomes particularly pronounced at higher temperatures.Read more
Theoretical graphene/ferromagnetic-insulator bilayer interface studied microscopically for spin Seebeck and spin pumping transport.No measurements recordedSimulatedCStudied MaterialFerromagnetic insulatorStudied MaterialExpand
Research paperTheoreticalComputational Kinetic ModelSpin Seebeck Effect in GrapheneXin Hu, Yuya Ominato, Mamoru MatsuoarXiv preprint·2024·10.1103/PhysRevB.110.245308·arXiv:2409.18456AbstractWe develop a microscopic theory of the spin Seebeck effect (SSE) at the interface of a bilayer system of a ferromagnetic insulator and graphene. We compare the tunneling spin current at the interface because of the SSE and the spin pumping (SP), where the SSE and SP are induced by the temperature gradient and the microwave irradiation, respectively. We demonstrate that the thermally driven SSE exhibits a quantum oscillation pattern similar to that predicted in coherently driven SP. Additionally, we show a peak shift of the quantum oscillation owing to the contribution of thermally excited magnons with higher frequencies, which becomes particularly pronounced at higher temperatures.Read more
Theoretical graphene/ferromagnetic-insulator bilayer interface studied microscopically for spin Seebeck and spin pumping transport.No measurements recordedSimulatedCStudied MaterialFerromagnetic insulatorStudied MaterialExpand
