The intrinsic properties of predesignable topologies and tunable electronic structures,
coupled with the increase of electrical conductivity, make two‐dimensional metal–organic …

Abstract Two-dimensional (2D) magnetism is now the attention of central demands in
fundamental condensed matter physics concerning about the understanding and control of …

Metal–organic frameworks (MOFs) have so far been highlighted for their potential roles in
catalysis, gas storage and separation. However, the realization of high electrical conductivity …

Control of single electron spins constitutes one of the most promising platforms for
spintronics, quantum sensing, and quantum information processing. Utilizing single …

The inherent susceptibility of low-dimensional materials to thermal fluctuations has long
been expected to pose a major challenge to achieve intrinsic long-range ferromagnetic …

Ferromagnetism is the collective alignment of atomic spins that retain a net magnetic
moment below the Curie temperature, even in the absence of external magnetic fields …

The significance of identifying the fundamental mechanism of interactions between adjacent
catalytic active centers has long been underestimated. Utilizing density functional theory …

The appeal of ultra-compact spintronics drives intense research on magnetism in low-
dimensional materials. Recent years have witnessed remarkable progress in engineering …

Nitrogen heteroatom doping into a triangulene molecule allows tuning its magnetic state.
However, the synthesis of the nitrogen-doped triangulene (aza-triangulene) has been …

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