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 recent discovery of the A V3Sb5 (A= K, Rb, Cs) kagome superconductors launched a
growing field of research investigating the interplay between superconductivity and charge …

A hallmark of strongly correlated quantum materials is the rich phase diagram resulting from
competing and intertwined phases with nearly degenerate ground-state energies,. A well …

The intertwining between spin, charge, and lattice degrees of freedom can give rise to
unusual macroscopic quantum states, including high-temperature superconductivity and …

Exotic phases of matter can emerge from the interplay between strong electron interactions
and non-trivial topology. Materials that have non-dispersing bands in their electronic band …

Experiments in the recently discovered vanadium-based kagome metals have suggested
that their charge-ordered state displays not only bond distortions, characteristic of a “real” …

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

For solids, the dispersionless flat band has long been recognized as an ideal platform for
achieving intriguing quantum phases. However, experimental progress in revealing flat …

The family of metallic kagome compounds AV 3 Sb 5 (A= K, Rb, Cs) was recently discovered
to exhibit both superconductivity and charge order. The nature of the charge density wave …

A 2× 2× 2 charge density wave (CDW) was recently observed deep inside the
antiferromagnetic phase of a kagome metal FeGe, which significantly enhances its spin …