Details of the Researcher

PHOTO

Tang Ping
Section
Advanced Institute for Materials Research
Job title
Specially Appointed Assistant Professor(Research)
Degree

  • 博士（工学）（中国科学院大学）

e-Rad No.
90927427

Research History 2

  • 2021/04 - Present
    AIMR, Tohoku University

  • 2020/11 - 2021/03
    Institute for Materials Research, Tohoku University

Education 3

  • Institute of Physics, Chinese Academy of Sciences　Ph.D

    2015/09 - 2020/07

  • The University of Arizona　Department of Physics　Visiting student

    2017/12 - 2019/12

  • Jilin University　Department of Physics　Bachelor

    2011/09 - 2015/07

Research Interests 4

  • Multiferroics

  • Ferroelectric materials

  • Spintronics and magnetism

  • Condensed matter theory

Research Areas 1

  • Natural sciences / Mathematical physics and basic theory /

Awards 1

  1. Core Research Cluster for Spintronics Award

    2023/11　Tohoku University　Spintronic analog of ferroelectric materials

Papers 29

  1. Giant magnon-driven magnetothermal transport in magnetic multilayers

    Ping Tang, Ken-ichi Uchida, Gerrit E. W. Bauer

    Physical Review B　2025/05/19

    DOI： 10.1103/PhysRevB.111.L180407 　

  2. Unconventional Spin Hall Magnetoresistance in Noncollinear Antiferromagnet/Heavy Metal Stacks Peer-reviewed

    Uchimura, T., Han, J., Tang, P., Yoon, J.-Y., Takeuchi, Y., Yamane, Y., Kanai, S., Bauer, G.E.W., Ohno, H., Fukami, S.

    Physical Review Letters　134　(9)　2025/03/03

    DOI： 10.1103/PhysRevLett.134.096701 　

    ISSN： 0031-9007 1079-7114

  3. Role of Disorder in the Intrinsic Orbital Hall Effect Peer-reviewed

    Ping Tang, Gerrit E. W. Bauer

    Physical Review Letters　2024/10/30

    DOI： 10.1103/PhysRevLett.133.186302 　

  4. Thermal and Coherent Spin Pumping by Noncollinear Antiferromagnets Peer-reviewed

    Ping Tang, Gerrit E. W. Bauer

    Physical Review Letters　2024/07/18

    DOI： 10.1103/PhysRevLett.133.036701 　

  5. Surface and volume modes of polarization waves in ferroelectric films Peer-reviewed

    Rodr{\'i}guez-Su{\'a}rez, R.L., Zhou, X.-H., Cai, C.Y., Tang, P., Yu, T., Bauer, G.E.W., Rezende, S.M.

    Physical Review B　109　(13)　2024/04/19

    DOI： 10.1103/PhysRevB.109.134307 　

    ISSN： 2469-9950 2469-9969

  6. Electric analog of magnons in order-disorder ferroelectrics

    Ping Tang, Gerrit E. W. Bauer

    Physical Review B　109　(6)　2024/02/20

    Publisher: American Physical Society (APS)

    DOI： 10.1103/physrevb.109.l060301 　

    ISSN： 2469-9950

    eISSN： 2469-9969

  7. Ultrafast switching dynamics of the ferroelectric order in stacking-engineered ferroelectrics Peer-reviewed

    Ri He, Bingwen Zhang, Hua Wang, Lei Li, Ping Tang, Gerrit Bauer, Zhicheng Zhong

    Acta Materialia　262　119416-119416　2024/01

    Publisher: Elsevier {BV}

    DOI： 10.1016/j.actamat.2023.119416 　

    ISSN： 1359-6454

  8. Soft Magnons in Anisotropic Ferromagnets Peer-reviewed

    G. E. W. Bauer, P. Tang, M. Elyasi, Y. M. Blanter, B. J. van Wees

    Physical Review B　2023/08/28

    Publisher: arXiv

    DOI： 10.48550/ARXIV.2304.10709 　 10.1103/PhysRevB.108.064431 　

    More details Close

    We discuss spin-wave transport in anisotropic ferromagnets with an emphasis on the zeroes of the band edges as a function of a magnetic field. An associated divergence of the magnon spin should be observable by enhanced magnon conductivities in non-local experiments, especially in two-dimensional ferromagnets.

  9. Surface Ferron Excitations in Ferroelectrics and Their Directional Routing Peer-reviewed

    Xi-Han Zhou, Chengyuan Cai, Ping Tang, R. L. Rodríguez-Suárez, Sergio M. Rezende, Gerrit E. W. Bauer, Tao Yu

    Chinese Physics Letters　40　(8)　087103-087103　2023/08/01

    Publisher: {IOP} Publishing

    DOI： 10.1088/0256-307x/40/8/087103 　

    ISSN： 0256-307X 1741-3540

    eISSN： 1741-3540

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    <jats:p>The duality between electric and magnetic dipoles inspires recent comparisons between ferronics and magnonics. Here we predict surface polarization waves or “ferrons” in ferroelectric insulators, taking the long-range dipolar interaction into account. We predict properties that are strikingly different from the magnetic counterpart, i.e. the surface Damon–Eshbach magnons in ferromagnets. The dipolar interaction pushes the ferron branch with locked circular polarization and momentum to the ionic plasma frequency. The low-frequency modes are on the other hand in-plane polarized normal to their wave vectors. The strong anisotropy of the lower branch renders directional emissions of electric polarization and chiral near fields when activated by a focused laser beam, allowing optical routing in ferroelectric devices.</jats:p>

  10. Long-distance magnon transport in the van der Waals antiferromagnet Peer-reviewed

    Dennis Kelvin de Wal, Arnaud Iwens, Tian Liu, Ping Tang, Gerrit Bauer, Bart J. van Wees

    Physical Review B　107　(18)　2023/05/11

    Publisher: American Physical Society ({APS})

    DOI： 10.1103/physrevb.107.l180403 　

    ISSN： 2469-9950 2469-9969

  11. Sliding Phase Transition in Ferroelectric van der Waals Bilayers Peer-reviewed

    Ping Tang, Gerrit Bauer

    Physical Review Letters　130　(17)　2023/04/25

    Publisher: American Physical Society ({APS})

    DOI： 10.1103/physrevlett.130.176801 　

    ISSN： 0031-9007 1079-7114

  12. Nonlocal drag thermoelectricity generated by ferroelectric van der Waals heterostructures Peer-reviewed

    Ping Tang, Ken-ichi Uchida, Gerrit Bauer

    Physical Review B　107　(12)　2023/03/21

    Publisher: American Physical Society ({APS})

    DOI： 10.1103/physrevb.107.l121406 　

    ISSN： 2469-9950 2469-9969

  13. Electric field–dependent phonon spectrum and heat conduction in ferroelectrics Peer-reviewed

    Brandi Wooten, Ryo Iguchi, Ping Tang, Joon Sang Kang, Ken-ichi Uchida, Gerrit Bauer, Joseph P. Heremans

    Science Advances　9　(5)　2023/02

    Publisher: American Association for the Advancement of Science ({AAAS})

    DOI： 10.1126/sciadv.add7194 　

    ISSN： 2375-2548

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    <jats:p> This article shows experimentally that an external electric field affects the velocity of the longitudinal acoustic phonons ( <jats:italic>v</jats:italic> <jats:sub>LA</jats:sub> ), thermal conductivity (κ), and diffusivity ( <jats:italic>D</jats:italic> ) in a bulk lead zirconium titanate–based ferroelectric. Phonon conduction dominates κ, and the observations are due to changes in the phonon dispersion, not in the phonon scattering. This gives insight into the nature of the thermal fluctuations in ferroelectrics, namely, phonons labeled ferrons that carry heat and polarization. It also opens the way for phonon-based electrically driven all-solid-state heat switches, an enabling technology for solid-state heat engines. A quantitative theoretical model combining piezoelectric strain and phonon anharmonicity explains the field dependence of <jats:italic>v</jats:italic> <jats:sub>LA</jats:sub> , κ, and <jats:italic>D</jats:italic> without any adjustable parameters, thus connecting thermodynamic equilibrium properties with transport properties. The effect is four times larger than previously reported effects, which were ascribed to field-dependent scattering of phonons. </jats:p>

  14. Prediction of a first-order phase transition in two-dimensional ferromagnets in the presence of random fields Peer-reviewed

    Essa Ibrahim, Ping Tang, Shufeng Zhang

    Journal of Magnetism and Magnetic Materials　564　169993-169993　2022/12

    Publisher: Elsevier {BV}

    DOI： 10.1016/j.jmmm.2022.169993 　

    ISSN： 0304-8853

  15. Excitations of the ferroelectric order Peer-reviewed

    Ping Tang, Ryo Iguchi, Ken-ichi Uchida, Gerrit Bauer

    Physical Review B　106　(8)　2022/08/08

    Publisher: American Physical Society ({APS})

    DOI： 10.1103/physrevb.106.l081105 　

    ISSN： 2469-9950 2469-9969

  16. Thermoelectric Polarization Transport in Ferroelectric Ballistic Point Contacts Peer-reviewed

    Ping Tang, Ryo Iguchi, Ken-ichi Uchida, Gerrit Bauer

    Physical Review Letters　128　(4)　2022/01/25

    Publisher: American Physical Society ({APS})

    DOI： 10.1103/physrevlett.128.047601 　

    ISSN： 0031-9007 1079-7114

  17. Magnonics vs. Ferronics Peer-reviewed

    Gerrit Bauer, Ping Tang, Ryo Iguchi, Ken-ichi Uchida

    Journal of Magnetism and Magnetic Materials　541　168468-168468　2022/01

    Publisher: Elsevier {BV}

    DOI： 10.1016/j.jmmm.2021.168468 　

    ISSN： 0304-8853

  18. Magnon junction effect in Y3Fe5O12/CoO/Y3Fe5O12 insulating heterostructures Peer-reviewed

    Wenqing He, Hao Wu, Chenyang Guo, caihua wan, Zhao Mingkun, Yaowen Xing, Ping Tang, Zhengren Yan, Jihao Xia, Tian Yu, Xiu-Feng Han

    Applied Physics Letters　119　(21)　212410-212410　2021/11/22

    Publisher: {AIP} Publishing

    DOI： 10.1063/5.0074335 　

    ISSN： 0003-6951 1077-3118

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    <jats:p>Magnonics as an emerging frontier of spintronics aims using magnons to deliver information free from electron scattering and as-induced Joule heating. In general, magnon currents can be excited both thermally and electrically in magnetic insulators by applying a current in an adjacent heavy-metal layer. Here, we report another kind of magnon junctions (MJs) composed of Y3Fe5O12/CoO/Y3Fe5O12 heterostructures, in which Y3Fe5O12 and CoO are, respectively, ferrimagnetic and antiferromagnetic insulators. A temperature gradient can drive a high (low) magnon current via the spin Seebeck effect when the Y3Fe5O12 layers in an MJ are configured at the parallel (antiparallel) state, showing a spin valve-like behavior. Electrically injected magnon current could also be controlled by the MJs, contributing to a magnon-mediate nonlocal spin Hall magnetoresistance (SMR). Furthermore, compared with its NiO counterpart, both the magnon junction and magnon-mediate SMR effects can be clearly observed at room temperature for the CoO-based magnon junctions, which can possibly be applied as a building block for room-temperature magnon-based memory or logic devices.</jats:p>

  19. Quantum theory of spin-torque driven magnetization switching Peer-reviewed

    Ping Tang, Xiu-Feng Han, Shufeng Zhang

    Physical Review B　103　(9)　2021/03/26

    Publisher: American Physical Society ({APS})

    DOI： 10.1103/physrevb.103.094442 　

    ISSN： 2469-9950 2469-9969

  20. Current‐Induced Spin Torques on Single GdFeCo Magnetic Layers Peer-reviewed

    David Céspedes‐Berrocal, Heloïse Damas, Sébastien Petit-Watelot, Davide Maccariello, Ping Tang, Aldo Arriola‐Córdova, Pierre Vallobra, Yong Xu, Jean‐Loïs Bello, Elodie Martin, Sylvie Migot, Jaafar Ghanbaja, Shufeng Zhang, Michel Hehn, Stéphane Mangin, Christos Panagopoulos, Vincent Cros, ALBERT FERT, Juan-Carlos Rojas-Sánchez

    Advanced Materials　33　(12)　2021/03

    Publisher: Wiley

    DOI： 10.1002/adma.202007047 　

    ISSN： 0935-9648 1521-4095

    eISSN： 1521-4095

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    <jats:title>Abstract</jats:title><jats:p>Spintronics exploit spin‐orbit coupling (SOC) to generate spin currents, spin torques, and, in the absence of inversion symmetry, Rashba and Dzyaloshinskii–Moriya interactions. The widely used magnetic materials, based on 3d metals such as Fe and Co, possess a small SOC. To circumvent this shortcoming, the common practice has been to utilize the large SOC of nonmagnetic layers of 5d heavy metals (HMs), such as Pt, to generate spin currents and, in turn, exert spin torques on the magnetic layers. Here, a new class of material architectures is introduced, excluding nonmagnetic 5d HMs, for high‐performance spintronics operations. Very strong current‐induced torques exerted on single ferrimagnetic GdFeCo layers, due to the combination of large SOC of the Gd 5d states and inversion symmetry breaking mainly engineered by interfaces, are demonstrated. These “self‐torques” are enhanced around the magnetization compensation temperature and can be tuned by adjusting the spin absorption outside the GdFeCo layer. In other measurements, the very large emission of spin current from GdFeCo, 80% (20%) of spin anomalous Hall effect (spin Hall effect) symmetry is determined. This material platform opens new perspectives to exert “self‐torques” on single magnetic layers as well as to generate spin currents from a magnetic layer.</jats:p>

  21. Spin transport and dynamic properties of two-dimensional spin-momentum locked states Peer-reviewed

    Ping Tang, Xiufeng Han, Shufeng Zhang

    EPL (Europhysics Letters)　130　(5)　58001-58001　2020/06/30

    Publisher: {IOP} Publishing

    DOI： 10.1209/0295-5075/130/58001 　

    ISSN： 1286-4854

    eISSN： 1286-4854

  22. A nonlocal spin Hall magnetoresistance in a platinum layer deposited on a magnon junction Peer-reviewed

    C. Y. Guo, C. H. Wan, W. Q. He, M. K. Zhao, Z. R. Yan, Y. W. Xing, X. Wang, P. Tang, Y. Z. Liu, S. Zhang, Yaowen LIU, Xiu-Feng Han

    Nature Electronics　3　(6)　304-308　2020/06/15

    Publisher: Springer Science and Business Media {LLC}

    DOI： 10.1038/s41928-020-0425-9 　

    ISSN： 2520-1131

  23. Coherent Resonant Tunneling through Double Metallic Quantum Well States Peer-reviewed

    Bingshan Tao, Caihua Wan, Ping Tang, Jiafeng Feng, Hongxiang Wei, Xiao Wang, Stéphane Andrieu, Hongxin Yang, Mairbek Chshiev, Xavier Devaux, Thomas Hauet, François Montaigne, Stéphane Mangin, Michel Hehn, Daniel Lacour, Xiu-Feng Han, Yuan LU

    Nano Letters　19　(5)　3019-3026　2019/05/08

    Publisher: American Chemical Society ({ACS})

    DOI： 10.1021/acs.nanolett.9b00205 　

    ISSN： 1530-6984 1530-6992

  24. Magnon resonant tunneling effect in double-barrier insulating magnon junctions and magnon field effect transistor Peer-reviewed

    Ping Tang, X. F. Han

    Physical Review B　99　(5)　2019/02/01

    Publisher: American Physical Society ({APS})

    DOI： 10.1103/physrevb.99.054401 　

    ISSN： 2469-9950 2469-9969

  25. Magnon valves based on YIG/NiO/YIG all-insulating magnon junctions Peer-reviewed

    C. Y. Guo, C. H. Wan, X. Wang, C. Fang, P. Tang, W. J. Kong, M. K. Zhao, L. N. Jiang, B. S. Tao, G. Q. Yu, X. F. Han

    Physical Review B　98　(13)　2018/10/17

    Publisher: American Physical Society ({APS})

    DOI： 10.1103/physrevb.98.134426 　

    ISSN： 2469-9950 2469-9969

  26. Ultrahigh Tunneling-Magnetoresistance Ratios in Nitride-Based Perpendicular Magnetic Tunnel Junctions from First Principles Peer-reviewed

    Baishun Yang, Lingling Tao, Leina Jiang, Weizhao Chen, Ping Tang, Yu Yan, Xiufeng Han

    Physical Review Applied　9　(5)　2018/05/14

    Publisher: American Physical Society ({APS})

    DOI： 10.1103/physrevapplied.9.054019 　

    ISSN： 2331-7019

  27. First-principles study of perpendicular magnetic anisotropy in ferrimagnetic D22-Mn3X (X = Ga, Ge) on MgO and SrTiO3 Peer-reviewed

    B. S. Yang, L. N. Jiang, W. Z. Chen, P. Tang, J. Zhang, X.-G. Zhang, Y. Yan, X. F. Han

    Applied Physics Letters　112　(14)　2018/04/02

    Publisher: AIP Publishing

    DOI： 10.1063/1.5013667 　

    ISSN： 0003-6951

    eISSN： 1077-3118

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    The magnetic anisotropy energy (MAE) of bulk D022-Mn3X (X = Ga, Ge), Mn3X/MgO, and Mn3X/STiO3(STO) heterostructures is calculated from first principles calculations. The main source of the large perpendicular magnetic anisotropy (PMA) of bulk Mn3X is identified as Mn atoms in the Mn-Mn layer. In the four heterostructures, the magnetic moment of interfacial Mn atoms was reversed when Mn3X was epitaxially grown on MgO and STO substrates. More importantly, a large in-plane tensile strain induced by lattice mismatch between Mn3X and MgO significantly changes the MAE, explaining the difficulty in experiments to obtain PMA in epitaxial Mn3X/MgO. Furthermore, interface and surface Mn atoms also help to enhance the PMA of Mn3X/STO (MgO) heterostructures due to dxy and dz2 states changing from occupied states in bulk Mn3X to unoccupied states in the interface (surface) Mn of the heterostructures. These results suggest that the PMA of manganese compound heterostructures can be produced by decreasing the lattice mismatch with substrates and will guide the search for ultrathin manganese compound films with high PMA epitaxially grown on substrates for the application of spintronic devices.

  28. Magneto-Seebeck effect in spin valves Peer-reviewed

    X. M. Zhang, C. H. Wan, H. Wu, P. Tang, Z. H. Yuan, Q. T. Zhang, X. Zhang, B. S. Tao, C. Fang, Dr. Muhammad Irfan

    Journal of Applied Physics　122　(14)　2017/10/14

    Publisher: {AIP} Publishing

    DOI： 10.1063/1.4991647 　

    ISSN： 0021-8979 1089-7550

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    <jats:p>The magneto-Seebeck (MS) effect, which is also called magneto-thermo-power, was observed in Co/Cu/Co and NiFe/Cu/Co spin valves. Their Seebeck coefficients in the parallel state were larger than those in the antiparallel state, and the MS ratio defined as (SAP -SP)/SP could reach –9% in our case. The MS effect originated not only from trivial giant magnetoresistance but also from spin current generated due to spin-polarized thermoelectric conductivity of ferromagnetic materials and subsequent modulation of the spin current by different spin configurations in spin valves. A simple Mott two-channel model reproduced a –11% MS effect for the Co/Cu/Co spin valves, qualitatively consistent with our observations. The MS effect could be applied for simultaneously sensing the temperature gradient and the magnetic field and also be possibly applied to determine spin polarization of thermoelectric conductivity and the Seebeck coefficient of ferromagnetic thin films.</jats:p>

  29. Strain induced enhancement of perpendicular magnetic anisotropy in Co/graphene and Co/BN heterostructures Peer-reviewed

    B. S. Yang, J. Zhang, L. N. Jiang, W. Z. Chen, P. Tang, X.-G. Zhang, Y. Yan, X. F. Han

    Physical Review B　95　(17)　2017/05/17

    Publisher: American Physical Society ({APS})

    DOI： 10.1103/physrevb.95.174424 　

    ISSN： 2469-9950 2469-9969

Show all ︎Show first 5

Misc. 5

  1. Van der Waals bilayers: Monolayer stiffness stabilizes ferroelectricity above RT

    Ping Tang

    AIMResearch Highligh:　2025/05

  2. Ferroelectric materials: Unveiling the “ferron” quasiparticle

    AIMResearch Highlights　2023/12

  3. Polarization transport in ferroelectrics Invited Peer-reviewed

    G.E.W. Bauer, P. Tang, R. Iguchi, J. Xiao, K. Shen, Z. Zhong, T. Yu, S.M. Rezende, J.P. Heremans, K. Uchida

    Physical Review Applied　20　(5)　2023/11/29

    Publisher: American Physical Society (APS)

    DOI： 10.1103/physrevapplied.20.050501 　

    eISSN： 2331-7019

  4. Electron and magnon resonant tunneling: materials, physics and devices Invited Peer-reviewed

    Xiu-Feng Han, Lingling Tao, Hao Wu, Ping Tang, Yaowen Xing

    Journal of Physics D: Applied Physics　56　(44)　443001-443001　2023/11/02

    Publisher: {IOP} Publishing

    DOI： 10.1088/1361-6463/ace72a 　

    ISSN： 0022-3727 1361-6463

    eISSN： 1361-6463

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    Abstract Resonant tunneling (RT) originally refers to electron tunneling through the resonant states of double-barrier potentials with a series of sharply peaked transmission coefficients (close to unity) at certain energies. Electron RT can be used to design promising electronic devices such as RT diode. If the quantum well states are spin-dependent, the electron RT would exhibit spin-polarized or spin-selective properties, as observed in the double magnetic tunnel junctions with a thin intercalary ferromagnetic layer. As a result of the quantum wave–particle duality, RT can be further expanded to magnons—the quanta of spin waves, which opens up a new avenue of research—magnon RT. Because of the bosonic nature and macroscopic quantum coherence, the magnon RT may occur in a wide spectrum and temperature range (room temperature and above room temperature), while the electron RT typically occurs around the Fermi level and at low temperature or around room temperature. Here, we review the recent advances in RT physics of electron and magnon, and outline possible device implications.

  5. From microelectronics to spintronics and magnonics Invited Peer-reviewed

    Xiu-Feng Han, Cai-Hua Wan, Hao Wu, Chen-Yang Guo, Ping Tang, Zheng-Ren Yan, Yao-Wen Xing, Wen-Qing He, Guo-Qiang Yu

    Chinese Physics B　31　(11)　117504-117504　2022/11/01

    Publisher: IOP Publishing

    DOI： 10.1088/1674-1056/ac9048 　

    ISSN： 1674-1056

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    In this review, the recent developments in microelectronics, spintronics, and magnonics have been summarized and compared. Firstly, the history of the spintronics has been briefly reviewed. Moreover, the recent development of magnonics such as magnon-mediated current drag effect (MCDE), magnon valve effect (MVE), magnon junction effect (MJE), magnon blocking effect (MBE), magnon-mediated nonlocal spin Hall magnetoresistance (MNSMR), magnon-transfer torque (MTT) effect, and magnon resonant tunneling (MRT) effect, magnon skin effect (MSE), etc., existing in magnon junctions or magnon heterojunctions, have been summarized and their potential applications in memory and logic devices, etc., are prospected, from which we can see a promising future for spintronics and magnonics beyond micro-electronics.

Presentations 16

  1. Longitudinal spin Hall magnetoresistance from spin fluctuations Invited

    Ping Tang

    3nd Iwate Spintronics Workshop (Morioka, Japan)

  2. Sub-terahertz surface spin waves in antiferromagnetic van der Waals multilayers Invited

    Ping Tang

    SpinX 2024 : Harnessing Spintronics for Tomorrow's Technology (Sendai, Japan)

  3. Electric polarization transport and “ferron” excitations in ferroelectrics Invited

    Ping Tang

    Topological Quantum Transport workshop (Huangshan, China)

  4. Magnonics v.s. Ferronics Invited

    Ping Tang

    The IEEE International Magnetics Conference (Rio de Janeiro, Brazil)

  5. Role of disorder on the orbital Hall effect Invited

    Ping Tang

    2nd Iwate Spintronics Workshop (Morioka, Japan)

  6. Spintronic Analog of ferroelectric materials Invited

    Ping Tang

    The 7th Symposium for the Core Research Clusters for Materials Science and Spintronics and the 6th Symposium on International Joint Graduate Program in Materials Science and Spintronics (Sendai, Japan)

  7. Role of impurity scatterings on the intrinsic orbital Hall effect Invited

    Ping Tang

    Orbitronics workshop (Daejeon, Korea)

  8. Ferrons v.s magnons

    Ping Tang

    SPICE-Workshop on Terahertz Spintronics: Toward Terahertz Spin-based Devices (Mainz, Germany)

  9. Ferron excitations in ferroelectric materials Invited

    Ping Tang

    Spin Summit workshop (Chengdu, China)

  10. Polarization caloritronics and ferron excitations in ferroelectrics Invited

    Ping Tang

    Spin Caloritronics XII (Tsukuba, Japan)

  11. Electric polarization transport and “ferron” excitations in ferroelectrics

    Ping Tang

    The IEEE International Magnetics Conference (Sendai, Japan)

  12. Polarization caloritronics and “ferron” excitations in ferroelectrics

    Ping Tang

    APS March Meeting (Las Vegas, USA)

  13. Electric polarization transport and “ferron” excitations in ferroelectrics Invited

    Ping Tang

    1st International Iwate Spintronics workshop (Morioka, Japan)

  14. “Ferron” excitations and polarization caloritronics in ferroelectrics

    Ping Tang

    24th International Colloquium on Magnetic Films and Surfaces (Okinawa, Japan)

  15. Ballistic polarization transport in ferroelectric point contacts

    Ping Tang

    The 82nd JSAP Autumn Meeting (online)

  16. The effect of disorder on the long-range order of 2D magnetic materials

    Ping Tang

    64th Annual Conference on Magnetism and Magnetic Materials (Las Vegas, USA)

Show all Show first 5

Research Projects 2

  1. Spin pumping by ferroelectric dynamics: Unveiling a novel “dynamical” magnetoelectric phenomenon

    Ping Tang

    Offer Organization: AIMR, Tohoku University

    Category: AIMR fusion project

    2024/09 - 2025/03

  2. Transport of the antiferromagnetic order

    Ping Tang

    Offer Organization: Japan Society for the Promotion of Science

    System: Grants-in-Aid for Scientific Research

    Category: Grant-in-Aid for Early-Career Scientists

    Institution: Tohoku University

    2023/04 - 2025/03

Teaching Experience 1

  1. Graduate Program in Spintronics　Tohoku University

Academic Activities 1

  1. Peer Reviewer for Physical Review Letters, Physical Review B, and Applied Physics Letters

    Activity type: Peer review