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Showing 1–10 of 10 results
Advanced filters: Author: O. Gomonay Clear advanced filters
  • Antiferromagnets are promising candidates to build terahertz spintronic devices. However, manipulating and detecting their terahertz spin dynamics remains key challenges. Here, Rongione et al. demonstrate both broadband and narrowband terahertz emission from an antiferromagnet/heavy metal heterostructure using spin-phonon interactions.

    • E. Rongione
    • O. Gueckstock
    • R. Lebrun
    ResearchOpen Access
    Nature Communications
    Volume: 14, P: 1-8
  • The zero net moment of antiferromagnets makes them insensitive to magnetic fields and enables ultrafast dynamics promising for novel spintronics. Here the authors achieved pulse current induced Néel vector switching in Mn2Au(001) epitaxial thin films, which is associated with a large magnetoresistive effect allowing simple read-out.

    • S. Yu. Bodnar
    • L. Šmejkal
    • M. Jourdan
    ResearchOpen Access
    Nature Communications
    Volume: 9, P: 1-7
  • Néel spin-orbit torques can occur in antiferromagnets with broken inversion symmetry, such as Mn2Au, and have garnered significant interest recently, as they allow for the electrical control of the antiferromagnetic ordering. Here, Behovits et al. apply intense terahertz electric fields to Mn2Au and observe the deflection of the Néel vector on ultrafast time scales due to Néel spin-orbit torques.

    • Y. Behovits
    • A. L. Chekhov
    • T. Kampfrath
    ResearchOpen Access
    Nature Communications
    Volume: 14, P: 1-10
  • Antiferromagnets have attracted interest for spin-based information processing due to their resilience to stray magnetic fields and extremely rapid spin dynamics, however, long range spin wave transport has only been shown in one type of antiferromagnet thus far. Here, Das et al demonstrate long range spin wave transport in antiferromagnetic YFeO3.

    • Shubhankar Das
    • A. Ross
    • M. Kläui
    ResearchOpen Access
    Nature Communications
    Volume: 13, P: 1-8
  • Hitherto, only circularly polarized antiferromagnetic (AFM) spin-waves (SWs) were expected to convey spin-information. Here, the authors present persistent spin-transport over long distances in the easy-plane AFM phase of hematite, α-Fe2O3, via linearly polarized SW pairs with ultra-low damping.

    • R. Lebrun
    • A. Ross
    • M. Kläui
    ResearchOpen Access
    Nature Communications
    Volume: 11, P: 1-7
  • Antiferromagnets offer faster operation speed and immunity to stray fields, however, readout of the Neel vector is difficult. Here, Bommanaboyena et al present a heterostructure of a ferromagnet and antiferromagnet, combining easy readout with the benefits of antiferromagnetic spintronics.

    • S. P. Bommanaboyena
    • D. Backes
    • M. Jourdan
    ResearchOpen Access
    Nature Communications
    Volume: 12, P: 1-7
  • The motion of electrons in a complex magnetic background may generate novel magnetic interactions. Here, Grytsiuk et al. report that a peculiar orbital motion of electrons in response to a non-coplanarity of neighbouring spins leads to a topological orbital moment, which further gives rise to a new class of magnetic interactions.

    • S. Grytsiuk
    • J.-P. Hanke
    • S. Blügel
    ResearchOpen Access
    Nature Communications
    Volume: 11, P: 1-7
  • As part of a Focus on antiferromagnetic spintronics, this Perspective looks at the complex and often faster dynamics of antiferromagnetic spin textures.

    • O. Gomonay
    • V. Baltz
    • Y. Tserkovnyak
    Reviews
    Nature Physics
    Volume: 14, P: 213-216
  • Antiferromagnets are expected to be a key part of next generation electronic devices however their magnetic interactions prove difficult to access. Here, the authors demonstrate that the surface sensitive spin-Hall magnetoresistance, along with a simple analytical model, can successfully probe the internal anisotropies of the model antiferromagnet hematite (α-Fe2O3).

    • R. Lebrun
    • A. Ross
    • M. Kläui
    ResearchOpen Access
    Communications Physics
    Volume: 2, P: 1-7