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日本物理学会講演概要集

21pAR-13 Lieb-Schultz-Mattisの定理の拡張 II

順平 森重, 清英 野村

Published Mar 21, 2015• 0 citations
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We study deconfined quantum critical points (DQCP) associated with Lieb-Schultz-Mattis (LSM) anomalies in one-dimensional spin chains. Our starting point is a structural characterization of the LSM anomaly in the Lyndon-Hochschild-Serre spectral sequence: $ω_{\mathrm{LSM}}\in E_\infty^{1,2}= H^1(\mathbb Z_{\mathrm{trans}},H^2(G_{\mathrm{int}},\mathrm{U}(1)))\subseteq H^3(G_{\mathrm{int}}\rtimes_ρ\mathbb Z_{\mathrm{trans}},\mathrm{U}(1))$. Physically, this class decorates a translation defect with a projective representation of the internal symmetry $G_\mathrm{int}$. We show that gauging the internal symmetry in the presence of an $E_\infty^{1,2}$-type anomaly necessarily produces a non-invertible dual symmetry. This gives a general mechanism for type-II DQCP: in contrast to type-I examples with $E_\infty^{2,1}$-type anomalies which are dual to ordinary group-like symmetry breaking, type-II transitions are dual to spontaneous breaking of a non-invertible symmetry. We illustrate the mechanism using a spin-$1/2$ chain with an anomalous $D_8$ LSM symmetry. We construct a dimer-to-ferromagnet DQCP candidate, provide numerical evidence for a critical theory with central charge $c\approx 1$, and show, using both category theory and explicit lattice constructions, that gauging the internal symmetry yields the non-invertible $\mathrm{Rep}(H_8)$ dual symmetry.

arXiv:2606.06343•Jun 4, 2026•0 citations
E∞1,2E_\infty^{1,2}E∞1,2​-type Lieb-Schultz-Mattis anomalies, deconfined quantum critical points, and non-invertible symmetry breaking
We study deconfined quantum critical points (DQCP) associated with Lieb-Schultz-Mattis (LSM) anomalies in one-dimensional spin chains. Our starting point is a structural characterization of the LSM anomaly in the Lyndon-Hochschild-Serre spectral sequence: ωLSM∈E∞1,2=H1(Ztrans,H2(Gint,U(1)))⊆H3(Gint⋊ρZtrans,U(1))ω_{\mathrm{LSM}}\in E_\infty^{1,2}= H^1(\mathbb Z_{\mathrm{trans}},H^2(G_{\mathrm{int}},\mathrm{U}(1)))\subseteq H^3(G_{\mathrm{int}}\rtimes_ρ\mathbb Z_{\mathrm{trans}},\mathrm{U}(1))ωLSM​∈E∞1,2​=H1(Ztrans​,H2(Gint​,U(1)))⊆H3(Gint​⋊ρ​Ztrans​,U(1)). Physically, this class decorates a translation defect with a projective representation of the internal symmetry GintG_\mathrm{int}Gint​. We show that gauging the internal symmetry in the presence of an E∞1,2E_\infty^{1,2}E∞1,2​-type anomaly necessarily produces a non-invertible dual symmetry. This gives a general mechanism for type-II DQCP: in contrast to type-I examples with E∞2,1E_\infty^{2,1}E∞2,1​-type anomalies which are dual to ordinary group-like symmetry breaking, type-II transitions are dual to spontaneous breaking of a non-invertible symmetry. We illustrate the mechanism using a spin-1/21/21/2 chain with an anomalous D8D_8D8​ LSM symmetry. We construct a dimer-to-ferromagnet DQCP candidate, provide numerical evidence for a critical theory with central charge c≈1c\approx 1c≈1, and show, using both category theory and explicit lattice constructions, that gauging the internal symmetry yields the non-invertible Rep(H8)\mathrm{Rep}(H_8)Rep(H8​) dual symmetry.