Recently discovered superconductors A V3Sb5 (A= K, Rb, Cs), provide a fresh opportunity to
study correlation-driven electronic phenomena on a kagome lattice. The observation of an …

Compounds with kagome lattice usually host many exotic quantum states, including the
quantum spin liquid, non-trivial topological Dirac bands and a strongly renormalized flat …

Quantum spin liquids are highly entangled, disordered magnetic states that are expected to
arise in frustrated Mott insulators and to exhibit exotic fractional excitations such as spinons …

Ultrathin van der Waals (vdW) magnets are heavily pursued for potential applications in
develo** high‐density miniaturized electronic/spintronic devices as well as for topological …

Transition metal dichalcogenide (TMD) moiré superlattices provide an emerging platform to
explore various light-induced phenomena. Recently, the discoveries of novel moiré excitons …

The interest in understanding scaling limits of magnetic textures such as domain walls spans
the entire field of magnetism from its physical fundamentals to applications in information …

Kagome metals are an exciting playground for the explorations of novel phenomena at the
intersection of topology, electron correlations and magnetism. The family of FeSn-based …

Unraveling the magnetic order in iron chalcogenides and pnictides at atomic scale is pivotal
for understanding their unconventional superconducting pairing mechanism, but is …

Rare-earth monopnictides are a family of materials simultaneously displaying complex
magnetism, strong electronic correlation, and topological band structure. The recently …

Antiferromagnetic order, being a ground state of a number of exotic quantum materials, is of
immense interest both from the fundamental physics perspective and for driving potential …