Phonon-induced topological transitions and crossovers in Dirac materials
arXiv:1209.4685 · doi:10.1103/PhysRevLett.110.046402
Abstract
We show that electron-phonon interactions can alter the topological properties of Dirac insulators and semimetals, both at zero and nonzero temperature. Contrary to the common belief that increasing temperature always destabilizes topological phases, our results highlight instances in which phonons may lead to the appearance of topological surface states above a crossover temperature in a material that has a topologically trivial ground state.
5 pages; published version
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- Topological phase transition between distinctWeyl semimetal states in MoTe2
- Evolution of magnetic Dirac bosons in a honeycomb lattice
- Temperature dependence of the topological phase transition of BiTeI from first principles
- Electron-phonon correlations on spin texture of gapped helical Dirac Fermions
- Phase diagram and phonon-induced backscattering in topological insulator nanowires
- Temperature-driven modification of surface electronic structure on bismuth, a topological border material
- Temperature-induced spontaneous time-reversal symmetry breaking on the honeycomb lattice
- Phonon and defect mediated quantum anomalous Hall insulator to metal transition in magnetically doped topological insulators