A tight binding model is used to calculate the band structure of bilayer graphene in the presence of a potential difference between the layers that opens a gap U between the conduction and valence bands. In particular, a self consistent Hartree approximation is used to describe imperfect screening of an external gate, employed primarily to control the density n of electrons on the bilayer, resulting in a potential difference between the layers and a density dependent gap U(n). We discuss the influence of a finite asymmetry gap U(0) at zero excess density, caused by the screening of an additional transverse electric field, on observations of the quantum Hall effect
Dataset for the Publication "Transport spectroscopy of ultraclean tunable band gaps in bilayer graph...
The importance of controlling both the charge carrier density and the band gap of a semiconductor ca...
Boltzmann transport theory fails near the linear band crossing of single-layer graphene and near the...
The low-energy electronic band structure of bilayer graphene consists of four bands: a pair of bands...
Electrons in bilayer graphene possess an unusual property: they are chiral quasiparticles characteri...
We employ the tight binding model to describe the electronic band structure of bilayer graphene and ...
We calculate the electronic band structure of ABA-stacked trilayer graphene in the presence of exter...
We present a self-consistent calculation of the interlayer asymmetry in bilayer graphene caused by a...
We present measurements of the electronic compressibility, K, of bilayer graphene in both zero and f...
We report on infrared spectroscopy of bilayer graphene integrated in gated structures. We observe a ...
We show that the Bi-Layer Graphene allows the control of its electronic gap under an applied voltage
Precision measurements of the effective mass m* in high-quality bilayer graphene using the temperatu...
We employ the tight binding model to describe the electronic band structure of bilayer graphene and ...
The tight-binding model of electrons in graphene is reviewed. We derive low-energy Hamiltonians supp...
International audienceThe electronic properties of doped bilayer graphene in presence of bottom and ...
Dataset for the Publication "Transport spectroscopy of ultraclean tunable band gaps in bilayer graph...
The importance of controlling both the charge carrier density and the band gap of a semiconductor ca...
Boltzmann transport theory fails near the linear band crossing of single-layer graphene and near the...
The low-energy electronic band structure of bilayer graphene consists of four bands: a pair of bands...
Electrons in bilayer graphene possess an unusual property: they are chiral quasiparticles characteri...
We employ the tight binding model to describe the electronic band structure of bilayer graphene and ...
We calculate the electronic band structure of ABA-stacked trilayer graphene in the presence of exter...
We present a self-consistent calculation of the interlayer asymmetry in bilayer graphene caused by a...
We present measurements of the electronic compressibility, K, of bilayer graphene in both zero and f...
We report on infrared spectroscopy of bilayer graphene integrated in gated structures. We observe a ...
We show that the Bi-Layer Graphene allows the control of its electronic gap under an applied voltage
Precision measurements of the effective mass m* in high-quality bilayer graphene using the temperatu...
We employ the tight binding model to describe the electronic band structure of bilayer graphene and ...
The tight-binding model of electrons in graphene is reviewed. We derive low-energy Hamiltonians supp...
International audienceThe electronic properties of doped bilayer graphene in presence of bottom and ...
Dataset for the Publication "Transport spectroscopy of ultraclean tunable band gaps in bilayer graph...
The importance of controlling both the charge carrier density and the band gap of a semiconductor ca...
Boltzmann transport theory fails near the linear band crossing of single-layer graphene and near the...