A kagome lattice naturally features Dirac fermions, flat bands and van Hove singularities in
its electronic structure. The Dirac fermions encode topology, flat bands favour correlated …

The vast of majority of battery electrode materials of contemporary interest are of a
crystalline nature. Crystals are, by definition, anisotropic from an atomic-structure …

The kagome lattice has long been regarded as a theoretical framework that connects lattice
geometry to unusual singularities in electronic structure. Transition metal kagome …

Magnetic kagome materials provide a fascinating playground for exploring the interplay of
magnetism, correlation and topology. Many magnetic kagome systems have been reported …

Kagome lattice hosts a plethora of quantum states arising from the interplay of topology, spin-
orbit coupling, and electron correlations. Here, we report symmetry-breaking electronic …

Fe3Sn2, a kagome ferromagnet, is a potential quantum material with intriguing topological
features. Despite substantial experimental work on the bulk single crystals, the thin film …

Due to the particularity of the lattice geometry, intriguing electronic characteristics of Dirac
cone and flat band can coexist in the two‐dimensional (2D) kagome lattice. The 2D kagome …

The material class of kagome metals has rapidly grown and has been established as a field
to explore the interplay between electronic topology and magnetism. In this work, we report …

We present a systematic study of the low-energy electrodynamics of the magnetic FeSn
kagome metal, which hosts both topological (Dirac) and non-trivial states. Our results reveal …

The kagome Hubbard model (KHM) is a paradigmatic example of a frustrated two-
dimensional model. While its strongly correlated regime, described by a Heisenberg model …