Geometrically frustrated kagome lattices are raising as novel platforms to engineer
correlated topological electron flat bands that are prominent to electronic instabilities. Here …

Owing to its unique geometry, the kagome lattice hosts various many-body quantum states
including frustrated magnetism, superconductivity, and charge-density waves (CDWs). In …

Exotic quantum states arise from the interplay of various degrees of freedom such as charge,
spin, orbital, and lattice. Recently, a short-ranged charge order (CO) was discovered deep …

Understanding spin and lattice excitations in a metallic magnetic ordered system forms the
basis to unveil the magnetic and lattice exchange couplings and their interactions with …

The combination of a geometrically frustrated lattice, and similar energy scales between
degrees of freedom endows two-dimensional Kagome metals with a rich array of quantum …

Kagome magnets provide a fascinating platform for the realization of correlated topological
quantum phases under various magnetic ground states. However, the effect of the magnetic …

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 …

Spontaneous symmetry breaking—the phenomenon in which an infinitesimal perturbation
can cause the system to break the underlying symmetry—is a cornerstone concept in the …

The properties of kagome metals are governed by the interdependence of band topology
and electronic correlations resulting in remarkably rich phase diagrams. Here, we study the …

FeGe is a kagome material that exhibits both charge density wave (CDW) order and
magnetic order. The CDW order is developed deep inside the A-type antiferromagnetic …