We review the electronic properties of bilayer graphene, beginning with a description of the
tight-binding model of bilayer graphene and the derivation of the effective Hamiltonian …

This review examines the properties of graphene from an experimental perspective. The
intent is to review the most important experimental results at a level of detail appropriate for …

The electronic properties of graphene, a two-dimensional crystal of carbon atoms, are
exceptionally novel. For instance, the low-energy quasiparticles in graphene behave as …

We present a compelling evidence for the opening of a bandgap in exfoliated bottom-gated
bilayer graphene by fitting the gate-voltage-modulated infrared reflectivity spectra in a large …

Owing in part to scaling challenges for metal oxide semiconductor field-effect transistors
(MOSFETs) and complementary metal oxide semiconductor (CMOS) logic, the …

In the last decade, as semiconductor industry was approaching the end of the exponential
Moore's roadmap for device downscaling, the necessity of finding new candidate materials …

The quest for develo** graphene-based nanoelectronics puts new requirements on the
science and technology of device modeling. It also heightens the role of device modeling in …

We propose that lateral heterostructures of single-atomic-layer graphene and hexagonal
boron–carbon-nitrogen (hBCN) domains, can represent a powerful platform for the …

In this letter, we propose the bilayer graphene tunnel field-effect transistor (TFET) as a
device suitable for fabrication and circuit integration with present-day technology. It provides …

Graphene, the leading example of a two-dimensional crystalline material, is exceptionally
conductive of electricity and heat even at 1 atom thickness, taken as 0.34 nm. This short …