Multiple quantum phase transitions of different nature in the topological kagome magnet Co3Sn2−xInxS2
暂无分享,去创建一个
A. Amato | S. Tsirkin | M Zahid Hasan | T. Neupert | I. Belopolski | S. Jia | H. Luetkens | Z. Guguchia | T. Cochran | R. Khasanov | H. Zhou | C. Mielke | C. Wang | J. Yin | S.-S. Zhang
[1] A. Amato,et al. Nodeless kagome superconductivity in LaRu3Si2 , 2021, Physical Review Materials.
[2] J. Mitchell,et al. Competing magnetic phases and fluctuation-driven scalar spin chirality in the kagome metal YMn6Sn6. , 2020, Science advances.
[3] Tay-Rong Chang,et al. Enhanced anomalous Hall effect in the magnetic topological semimetal Co3Sn2−xInxS2 , 2020, 2003.02412.
[4] N. Ghimire,et al. Topology and correlations on the kagome lattice , 2020, Nature materials.
[5] S. Tsirkin,et al. Tunable anomalous Hall conductivity through volume-wise magnetic competition in a topological kagome magnet , 2020, Nature Communications.
[6] K. Le Hur,et al. Magnetic topological kagome systems , 2019, Physical Review Research.
[7] A. Amato,et al. Dual nature of magnetism in MnSi , 2019, Physical Review Research.
[8] J. Long,et al. Exchange biased anomalous Hall effect driven by frustration in a magnetic kagome lattice , 2019, Nature Communications.
[9] C. Felser,et al. Emerging chiral edge states from the confinement of a magnetic Weyl semimetal in Co3Sn2S2 , 2017, Physical Review B.
[10] Yugui Yao,et al. Pressure-tunable large anomalous Hall effect of the ferromagnetic kagome-lattice Weyl semimetal Co3Sn2S2 , 2019, Physical Review B.
[11] Q. Sheng,et al. Probing the quantum phase transition in Mott insulator BaCoS2 tuned by pressure and Ni substitution , 2019, Physical Review Materials.
[12] S. Tsirkin,et al. Negative flat band magnetism in a spin–orbit-coupled correlated kagome magnet , 2019, Nature Physics.
[13] R. Weihrich,et al. Von der Laborpresse zu Spins mit riesigen Effekten , 2018, Angewandte Chemie.
[14] Shuang Jia,et al. Giant and anisotropic many-body spin–orbit tunability in a strongly correlated kagome magnet , 2018, Nature.
[15] C. Felser,et al. Topological surface Fermi arcs in the magnetic Weyl semimetal Co3Sn2S2 , 2017, Physical Review B.
[16] H. Weng,et al. Large intrinsic anomalous Hall effect in half-metallic ferromagnet Co3Sn2S2 with magnetic Weyl fermions , 2017, Nature Communications.
[17] Liang Fu,et al. Massive Dirac fermions in a ferromagnetic kagome metal , 2017, Nature.
[18] C. Felser,et al. Giant anomalous Hall angle in a half-metallic magnetic Weyl semimetal , 2017 .
[19] Shou-Cheng Zhang,et al. Topological states of condensed matter. , 2017, Nature materials.
[20] B. Keimer,et al. The physics of quantum materials , 2017, Nature Physics.
[21] Thomas Wolf,et al. Restoration of quantum critical behavior by disorder in pressure-tuned (Mn,Fe)Si , 2017, npj Quantum Materials.
[22] A. Stoykov,et al. The new versatile general purpose surface-muon instrument (GPS) based on silicon photomultipliers for μSR measurements on a continuous-wave beam. , 2017, The Review of scientific instruments.
[23] Xiao-Gang Wen,et al. Colloquium : Zoo of quantum-topological phases of matter , 2016, 1610.03911.
[24] A. Amato,et al. High pressure research using muons at the Paul Scherrer Institute , 2016, 1603.08847.
[25] Takashi U. Ito,et al. Volume-wise destruction of the antiferromagnetic Mott insulating state through quantum tuning , 2016, Nature Communications.
[26] A. Amato,et al. High-pressure magnetic state of MnP probed by means of muon-spin rotation , 2016, 1603.03367.
[27] A. Amato,et al. Direct evidence for a pressure-induced nodal superconducting gap in the Ba0.65Rb0.35Fe2As2 superconductor , 2015, Nature Communications.
[28] A. Amato,et al. Understanding the µ SR spectra of MnSi without magnetic polarons , 2014, 1405.0140.
[29] F. Schappacher,et al. Half Antiperovskites VI: On the Substitution Effects in Shandites InxSn2–xCo3S2 †‡ , 2014 .
[30] F. Schappacher,et al. Ferromagnetic ordering and half-metallic state of Sn2Co3S2 with the shandite-type structure , 2013 .
[31] Daniel G. Nocera,et al. Fractionalized excitations in the spin-liquid state of a kagome-lattice antiferromagnet , 2012, Nature.
[32] A. Suter,et al. Musrfit: A Free Platform-Independent Framework for μSR Data Analysis , 2011, 1111.1569.
[33] C. Kane,et al. Topological Insulators , 2019, Electromagnetic Anisotropy and Bianisotropy.
[34] A. Savici,et al. Phase separation and suppression of critical dynamics at quantum phase transitions of MnSi and (Sr 1−x Ca x )RuO 3 , 2006, cond-mat/0612437.
[35] R. Weihrich,et al. Half Antiperovskites. III. Crystallographic and Electronic Structure Effects in Sn2−xInxCo3S2† , 2006 .
[36] R. Weihrich,et al. Halbantiperowskite: Zur Struktur der Shandite M3/2AS (M = Co, Ni; A = In, Sn) und ihren Typ‐Antitypbeziehungen , 2005 .
[37] D. Andreica,et al. Extreme quantum behavior of positive muons in CeAl2 below 1 K , 2001 .
[38] Sachdev,et al. Kagomé- and triangular-lattice Heisenberg antiferromagnets: Ordering from quantum fluctuations and quantum-disordered ground states with unconfined bosonic spinons. , 1992, Physical review. B, Condensed matter.
[39] Chubukov. First-order transition in frustrated quantum antiferromagnets. , 1991, Physical review. B, Condensed matter.