During the past few years, two-dimensional (2D) layered materials have emerged as the
most fundamental building blocks of a wide variety of optoelectronic devices. The weak van …

Two-dimensional materials are promising for use in atomically thin electronics,
optoelectronics and flexible electronics because of their versatile band structures, optical …

This article reviews recent advances in the large-area synthesis of graphene sheets and the
applications of such sheets to graphene-based transistors. Graphene is potentially useful in …

During the past 10 years, 2D materials have found significant attention in the electronic
device community. The first 2D material explored for electronic applications was graphene …

The celebrated electronic properties of graphene, have opened the way for materials just
one atom thick to be used in the post-silicon electronic era. An important milestone was the …

Graphene has attracted considerable interest for future electronics, but the absence of a
bandgap limits its direct applicability in transistors and logic devices. Recently, other layered …

Graphene was grown on copper and repeatedly transferred onto a GaAs semi-insulating
substrate to form multilayers (1–10). These manually stacked graphene layers resulted in …

Graphene heterostructures in which graphene is combined with semiconductors or other
layered 2D materials are of considerable interest, as a new class of electronic devices has …

This article reviews optoelectronic devices based on graphene and related two-dimensional
(2D) materials. The review includes basic considerations of process technology, including …

The use of two truly two-dimensional gapless semiconductors, monolayer and bilayer
graphene, as current-carrying components in field-effect transistors (FETs) gives access to …