Angle-resolved photoemission spectroscopy (ARPES)—an experimental technique based
on the photoelectric effect—is arguably the most powerful method for probing the electronic …

The last decade has witnessed a flourish in 2D materials including graphene and transition
metal dichalcogenides (TMDs) as atomic‐scale Legos. Artificial moiré superlattices via …

Transport experiments in twisted bilayer graphene have revealed multiple superconducting
domes separated by correlated insulating states,,,–. These properties are generally …

Low-dimensional van der Waals materials have been extensively studied as a platform with
which to generate quantum effects. Advancing this research, topological quantum materials …

A novel strategy for efficient growth of nitrogen-doped graphene (N-graphene) on a large
scale from s-triazine molecules is presented. The growth process has been unveiled in situ …

The ability to directly monitor the states of electrons in modern field-effect devices—for
example, imaging local changes in the electrical potential, Fermi level and band structure as …

Combining monolayers of different two-dimensional semiconductors into heterostructures
creates new phenomena and device possibilities. Understanding and exploiting these …

Angle-resolved photoemission spectroscopy using a micro-focused beam spot [micro-angle-
resolved photoemission spectroscopy (ARPES)] is becoming a powerful tool to elucidate key …

Atomically thin films of III–VI post-transition metal chalcogenides (InSe and GaSe) form an
interesting class of two-dimensional semiconductors that feature a strong variation of their …

The major breakthroughs in understanding of topological materials over the past decade
were all triggered by the discovery of the Z2-type topological insulator—a type of material …