Two-dimensional materials with high charge carrier mobility and tunable band gaps have
attracted intense research effort for their potential use in nanoelectronics. Two-dimensional …

Here we discuss, based on first-principles calculations, two-dimensional (2D) kagome
lattices composed of polymerized heterotriangulene units, planar molecules with D3h point …

Despite the availability of numerous two‐dimensional (2D) materials with structural ordering
at the atomic or molecular level, direct construction of mesoscale‐ordered superstructures …

Poor solubility of π-conjugated two-dimensional polymers (C2Ps) has been a significant
roadblock in incorporating these emergent materials into electronic devices by simple …

Two-dimensional transition-metal dichalcogenide (2D TMD) layers are highly attractive for
emerging stretchable and foldable electronics owing to their extremely small thickness …

Most organic/polymeric semiconductors are p-type semiconductors, whereas their n-type
versions are limited in both availability and carrier mobility. How to develop high-rate n-type …

Single‐layer and multi‐layer 2D polyimine films have been achieved through interfacial
synthesis methods. However, it remains a great challenge to achieve the maximum degree …

Emergent quantum phenomena in electronically coupled two-dimensional heterostructures
are central to next-generation optical, electronic, and quantum information applications …

Tuning the charge carrier density of two-dimensional (2D) materials by incorporating
dopants into the crystal lattice is a challenging task. An attractive alternative is the surface …

Topological band theory predicts that a topological electronic phase transition between two
insulators must proceed via closure of the electronic gap. Here, we use this transition to …