Add to ORKGIn this paper, we present a simple model of a three-dimensional insulating magnetic structure which represents a magnonic analog of the layered electronic system described by A. A. Burkov and L. Balents [Phys. Rev. Lett. 107, 127205 (2011)]. In particular, our model realizes Weyl magnons as well as surface states with a Dirac spectrum. In this model, the Dzyaloshinskii-Moriya interaction is responsible for the separation of opposite Weyl points in momentum space. We calculate the intrinsic (due to the Berry curvature) transport properties of Weyl and so-called anomalous Hall effect magnons. The results are compared with fermionic analogs
Topological magnon insulators constitute a growing field of research for their potential use as info...
We demonstrate theoretically that the thermal Hall effect of magnons in collinear antiferromagnetic ...
The concept of the geometric Berry phase of the quantum mechanical wave function has led to a better...
As the spin excitation quanta in magnetic materials, the magnon is at the heart of the spintronics r...
As the spin excitation quanta in magnetic materials, the magnon is at the heart of the spintronics r...
We propose a magnon realization of 3D topological insulator in the AIII (chiral symmetry) topologica...
We propose the existence of a symmetry-protected topological Dirac nodal-line (DNL) magnonic phase i...
The properties of Kitaev materials are attracting ever increasing attention owing to their exotic pr...
In this work, we study the magnon-magnon interaction effect in typical honeycomb ferromagnets consi...
Extending the notion of symmetry protected topological phases to insulating antiferromagnets (AFs) d...
Spintronics is based on the transport of information by the spin of electronsrather than charge curr...
We predict that a temperature gradient can induce a magnon-mediated intrinsic torque in systems with...
We study the Kitaev-Heisenberg Gamma-Gamma model that describes the magnetism in spin-orbit coupled ...
Condensed matter systems admit topological collective excitations above a trivial ground state, an e...
We study gauge fields produced by gradients of the Dzyaloshinskii-Moriya interaction and propose a m...
Topological magnon insulators constitute a growing field of research for their potential use as info...
We demonstrate theoretically that the thermal Hall effect of magnons in collinear antiferromagnetic ...
The concept of the geometric Berry phase of the quantum mechanical wave function has led to a better...
As the spin excitation quanta in magnetic materials, the magnon is at the heart of the spintronics r...
As the spin excitation quanta in magnetic materials, the magnon is at the heart of the spintronics r...
We propose a magnon realization of 3D topological insulator in the AIII (chiral symmetry) topologica...
We propose the existence of a symmetry-protected topological Dirac nodal-line (DNL) magnonic phase i...
The properties of Kitaev materials are attracting ever increasing attention owing to their exotic pr...
In this work, we study the magnon-magnon interaction effect in typical honeycomb ferromagnets consi...
Extending the notion of symmetry protected topological phases to insulating antiferromagnets (AFs) d...
Spintronics is based on the transport of information by the spin of electronsrather than charge curr...
We predict that a temperature gradient can induce a magnon-mediated intrinsic torque in systems with...
We study the Kitaev-Heisenberg Gamma-Gamma model that describes the magnetism in spin-orbit coupled ...
Condensed matter systems admit topological collective excitations above a trivial ground state, an e...
We study gauge fields produced by gradients of the Dzyaloshinskii-Moriya interaction and propose a m...
Topological magnon insulators constitute a growing field of research for their potential use as info...
We demonstrate theoretically that the thermal Hall effect of magnons in collinear antiferromagnetic ...
The concept of the geometric Berry phase of the quantum mechanical wave function has led to a better...