Metal–organic coordination structures are materials comprising reticular metal centers and
organic linkers in which the two constituents bind with each other via metal–ligand …

Advances in high-resolution and spin-resolved scanning tunnelling microscopy, as well as
atomic-scale manipulation, have enabled the bottom-up, atom-by-atom creation and …

The observation of massless Dirac fermions in monolayer graphene has generated a new
area of science and technology seeking to harness charge carriers that behave …

Graphene quantum dots (GQDs) not only have potential applications on spin qubit, but also
serve as essential platforms to study the fundamental properties of Dirac fermions, such as …

The energy dispersion of fermions or bosons vanishes in momentum space if destructive
quantum interference occurs in a frustrated Kagome lattice with only nearest-neighbor …

Large aromatic carbon nanostructures are cornerstone materials due to their increasingly
active role in functional devices, but their synthesis in solution encounters size and shape …

Homochirality is essential to many biological systems, and plays a pivotal role in various
technological applications. The generation of homochirality and an understanding of its …

Transmetalation represents an appealing strategy toward fabricating and tuning functional
metal–organic polymers and frameworks for diverse applications. In particular, building two …

Artificial electronic kagome lattices may emerge from electronic potential landscapes using
customized structures with exotic supersymmetries, benefiting from the confinement of …

Surfaces are at the frontier of every known solid. They provide versatile supports for
functional nanostructures and mediate essential physicochemical processes. Intimately …