Axionic Antiferromagnetic Insulator Phase in a Correlated and Spin-Orbit Coupled System
arXiv:1401.4523 · doi:10.7566/JPSJ.83.104709
Abstract
We study theoretically a three-dimensional correlated and spin-orbit coupled system, the half-filled extended Fu-Kane-Mele-Hubbard model on a diamond lattice, focusing on the topological magnetoelectric response of the antiferromagnetic insulator phase. In the antiferromagnetic insulator phase, the Dirac-like low-energy effective Hamiltonian is obtained. Then the theta term, which results in the magnetoelectric response, is derived as a consequence of the chiral anomaly. The realization of the dynamical axion field in our model is discussed. The relation with a symmetry broken phase induced by interactions in lattice quantum chromodynamics is also discussed.
7 pages, 2 figures
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- Axion/Hidden-Photon Dark Matter Conversion into Condensed Matter Axion
- Electric-Field-Induced Spin Resonance in Antiferromagnetic Insulators: Inverse Process of the Dynamical Chiral Magnetic Effect
- Axion instability and non-linear electromagnetic effect
- Fractional Electromagnetic Response in Three-Dimensional Chiral Anomalous Semimetal
- Field-induced multiple metal-insulator crossovers of correlated Dirac electrons of perovskite CaIrO
- Kondo effect with Wilson fermions
- Chiral Gravitomagnetic Effect in Topological Superconductors and Superfluids
- Axion mass in antiferromagnetic insulators
- Topology-insensitive axion mass in magnetic topological insulators