Crystalline spin-orbit interaction and the Zeeman splitting in PbSnTe
arXiv:1603.04138 · doi:10.1088/0953-8984/28/31/31LT01
Abstract
The ratio of the Zeeman splitting to the cyclotron energy (), which characterizes the relative strength of the spin-orbit interaction in crystals, is examined for the narrow gap IV-VI semiconductors PbTe, SnTe, and their alloy PbSnTe on the basis of the multiband theory. The inverse mass , the g-factor , and are calculated numerically by employing the relativistic empirical tight-binding band calculation. On the other hand, a simple but exact formula of is obtained for the six-band model based on the group theoretical analysis. It is shown that for PbTe and for SnTe, which are interpreted in terms of the relevance of the interband couplings due to the crystalline spin-orbit interaction. It is clarified both analytically and numerically that just at the band inversion point, where the transition from trivial to nontrivial topological crystalline insulator occurs. By using this property, one can detect the transition point only with the bulk measurements. It is also proposed that is useful to evaluate quantitatively a degree of the Dirac electrons in solids.
arXiv comment9 pages, 3 figures
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- Weak anti-localization in spin-orbit coupled lattice systems: effect of non-adiabatic transitions and estimation of spin relaxation length