International audienceDensity functional calculations including long-range dispersion effects demonstrate that non-covalent doping with an electron donor acceptor couple of molecules can open an energy gap in a bilayer graphene. The band gap modulation can be controlled not only by the choice of adsorbed molecules (n-dopant versus p-dopant) but also by their concentration. A deep analysis of the charge transfer reveals that charge redistribution in bilayer graphene is the key issue for gap opening, due to the induced inversion symmetry breaking. The dual molecular non-covalent doping mode can achieve the opening of a gap up to 138 meV
We investigated a suspended bilayer graphene where the bottom/top layer is doped by boron/nitrogen s...
Developing graphene-based nanoelectronics hinges on opening a band gap in the electronic structure o...
Opening up a band gap in graphene holds a crucial significance in the realization of graphene based ...
International audienceDensity functional calculations including long-range dispersion effects demons...
The ability to induce an energy band gap in bilayer graphene is an important development in graphene...
The band gap opening of graphene is the most desired property in the device industry because it is v...
The band gap opening of graphene is the most desired property in the device industry because it is v...
A central question in graphene chemistry is to what extent chemical modification can control an elec...
[[sponsorship]]原子與分子科學研究所[[note]]已出版;[SCI];有審查制度;具代表性[[note]]http://gateway.isiknowledge.com/gateway...
By employing molecular dynamics (MD) simulations based on empirical potentials and density functiona...
International audienceThe electronic properties of doped bilayer graphene in presence of bottom and ...
We use a tight-binding approach and density functional theory calculations to study the band structu...
Dual doping-driven perpendicular electric field with opposite directions remarkably increase the on/...
Carbon is one of the most versatile materials available to man, for hundreds of years the 3D forms o...
For graphene to be utilized in the digital electronics industry the challenge is to create bandgaps ...
We investigated a suspended bilayer graphene where the bottom/top layer is doped by boron/nitrogen s...
Developing graphene-based nanoelectronics hinges on opening a band gap in the electronic structure o...
Opening up a band gap in graphene holds a crucial significance in the realization of graphene based ...
International audienceDensity functional calculations including long-range dispersion effects demons...
The ability to induce an energy band gap in bilayer graphene is an important development in graphene...
The band gap opening of graphene is the most desired property in the device industry because it is v...
The band gap opening of graphene is the most desired property in the device industry because it is v...
A central question in graphene chemistry is to what extent chemical modification can control an elec...
[[sponsorship]]原子與分子科學研究所[[note]]已出版;[SCI];有審查制度;具代表性[[note]]http://gateway.isiknowledge.com/gateway...
By employing molecular dynamics (MD) simulations based on empirical potentials and density functiona...
International audienceThe electronic properties of doped bilayer graphene in presence of bottom and ...
We use a tight-binding approach and density functional theory calculations to study the band structu...
Dual doping-driven perpendicular electric field with opposite directions remarkably increase the on/...
Carbon is one of the most versatile materials available to man, for hundreds of years the 3D forms o...
For graphene to be utilized in the digital electronics industry the challenge is to create bandgaps ...
We investigated a suspended bilayer graphene where the bottom/top layer is doped by boron/nitrogen s...
Developing graphene-based nanoelectronics hinges on opening a band gap in the electronic structure o...
Opening up a band gap in graphene holds a crucial significance in the realization of graphene based ...