Graphene, a single layer of carbon atoms in a honeycomb lattice, offers a number of
fundamentally superior qualities that make it a promising material for a wide range of …

Graphene exhibits superior mechanical strength, high thermal conductivity, strong light–
matter interactions, and, in particular, exceptional electronic properties. These merits make …

The constituent particles of matter can arrange themselves in various ways, giving rise to
emergent phenomena that can be surprisingly rich and often cannot be understood by …

Multilayer graphene and its stacking order provide both fundamentally intriguing properties
and technological engineering applications. Several approaches to control the stacking …

Future wearable electronics, displays and photovoltaic devices require materials which are
mechanically flexible, lightweight and low-cost, in addition to being electrically conductive …

The electronic, optical, and mechanical properties of bilayer and trilayer graphene vary with
their structure, including the stacking order and relative twist, providing novel ways to realize …

Two-dimensional materials are of current great interest for their promising applications to
postsilicon microelectronics. Here we study, using first-principles calculations and a Monte …

The properties of van der Waals (vdW) materials often vary dramatically with the atomic
stacking order between layers, but this order can be difficult to control. Trilayer graphene …

New synthesis routes to tailor graphene properties by controlling the concentration and
chemical configuration of dopants show great promise. Herein we report the direct …

We report on the transport properties of ABC and ABA stacked trilayer graphene using dual,
locally gated field effect devices. The high efficiency and large breakdown voltage of the …