journal article·2020-11-12Open access

Glide-symmetric topological crystalline insulator phase in a nonprimitive lattice

Heejae Kim, Shuichi Murakami

Physical Review B· Volume 102· Issue 19

Abstract

We study the topological crystalline insulator phase protected by the glide symmetry, which is characterized by the ${Z}2$ topological number. In the present paper, we derive a formula for the ${Z}2$ topological invariant protected by glide symmetry in a nonprimitive lattice from that in a primitive lattice. We establish a formula for the glide-${Z}2$ invariant for the space group No. $\mathbit{9}$ with glide symmetry in the base-centered lattice by folding the Brillouin zone into that of the primitive lattice where the formula for the glide-${Z}2$ invariant is known. The formula is written in terms of integrals of the Berry curvatures and Berry phases in the $k$ space. We also derive a formula of the glide-${Z}2$ invariant when the inversion symmetry is added, and the space group becomes $\mathbit{15}$. This reduces the formula into the Fu-Kane-like formula, expressed in terms of the irreducible representations at high-symmetry points in $k$ space. We also construct these topological invariants by the layer-construction approach, and the results completely agree with those from the $k$-space approach.
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Research context

OpenAlex topics: Topological Materials and Phenomena · Quantum many-body systems · Advanced Condensed Matter Physics

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