Strongly correlated systems present fundamental challenges, especially in materials in
which electronic correlations cause a strong increase of the effective mass of the charge …

The heavy fermion physics is dictated by subtle competing exchange interactions, posing a
challenge to their understanding. One-dimensional (1D) Kondo lattice model has attracted …

Topological insulators, with metallic boundary states protected against time-reversal-
invariant perturbations, are a promising avenue for realizing exotic quantum states of matter …

Electronic, magnetic, and structural phase inhomogeneities are ubiquitous in strongly
correlated quantum materials. The characteristic length scales of the phase inhomogeneities …

Heavy Fermion (HF) states emerge in correlated quantum materials due to the intriguing
interplay between localized magnetic moments and itinerant electrons but rarely appear in …

The heterobimetallic complexes [{UO2Ln (py) 2 (L)} 2], combining a singly reduced uranyl
cation and a rare-earth trication in a binucleating polypyrrole Schiff-base macrocycle …

A Kondo lattice is often electrically insulating at low temperatures. However, several recent
experiments have detected signatures of bulk metallicity within this Kondo insulating phase …

Scanning probe microscopy methods have enabled characterization of surface topography
and electronic structure down to the nanometer (and in some cases atomic) scale. As such …

Two-dimensional electronic states at surfaces are often observed in simple wide-band
metals such as Cu or Ag (refs.,,–). Confinement by closed geometries at the nanometre …

Emergent inhomogeneous electronic phases in metallic quantum systems are crucial for
understanding high‐Tc superconductivity and other novel quantum states. In particular, spin …