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Annealing-induced long-range charge density wave order in magnetic kagome FeGe: fluctuations and disordered structure
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abstract
Charge density wave (CDW) in kagome materials with the geometric frustration is able to carry unconventional characteristics. Recently, a CDW has been observed below the antiferromagnetic order in kagome FeGe, in which magnetism and CDW are intertwined to form an emergent quantum ground state. However, the CDW is only short-ranged and the structural modulation originating from it has yet to be determined experimentally. Here we realize a long-range CDW order by post-annealing process, and resolve the structure model through single crystal x-ray diffraction. Occupational disorder of Ge resulting from short-range CDW correlations above $T_\mathrm{CDW}$ is identified from structure refinements. The partial dimerization of Ge along the $c$ axis is unveiled to be the dominant distortion for the CDW. Occupational disorder of Ge is also proved to exist in the CDW phase due to the random selection of partially dimerized Ge sites. Our work provides useful insights for understanding the unconventional nature of the CDW in FeGe.
Forward citations
Cited by 2 Pith papers
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Anisotropic transport properties and topological Hall effect in the annealed kagome antiferromagnet FeGe
In annealed kagome antiferromagnet FeGe, a field-induced spin-flop transition produces a nonlinear Hall signal below the canting transition, interpreted as a topological Hall effect.
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Electronic band structures of topological kagome materials
A topical review that consolidates published experimental and theoretical results on the band structures, magnetism, and correlated phases of kagome metals without adding new measurements or derivations.
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