The applicability of graphene in nanoscale devices is somewhat limited because of the absence of a finite band gap. To overcome this limitation of zero band gap, we consider vertically-stacked heterostructures consisting of graphene and SnO knowing that two-dimensional SnO films were synthesized recently. Calculations based on density functional theory find that the oxide monolayer can induce a notable band gap in graphene; 115 meV in SnO/graphene/SnO heterostructures. Additionally, the band gap of graphene can be maintained under a relatively high electric field (≈109 V m−1) applied to the heterostructures because of the electrostatic screening effect of the oxide layer. The calculated results suggest the relative superiority of the graphe...
We report unique electrical anisotropy and dielectric properties of graphene oxide (GO) thin films, ...
There are a large number of atomically thin graphitic films with a structure similar to that of grap...
For graphene to be utilized in the digital electronics industry the challenge is to create bandgaps ...
© 2017 IOP Publishing Ltd. Van der Waals structures based on two-dimensional materials have been con...
Heterostructures based on graphene were investigated by using density function theory (DFT). It is f...
To solve a challenging issue, i.e., the gap opening of graphene, we designed several heterojunctions...
Developing graphene-based nanoelectronics hinges on opening a band gap in the electronic structure o...
We investigate band-gap tuning of bilayer graphene between hexagonal boron nitride sheets, by extern...
Developing graphene-based nanoelectronics hinges on opening a band gap in the electronic structure o...
The geometries and electronic characteristics of the graphene monoxide (GMO) bilayer are predicted v...
We provide the first systematic ab initio investigation of the possibility to create a band gap in f...
Structural and electronic properties of two-dimensional stanene and graphene heterostructure (Sn/G) ...
Two-dimensional (2D) tin monoxide (SnO) has attracted much attention owing to its distinctive electr...
Controlled reduction of graphene oxide (GO) is a promising method to tune the electronic band gap of...
Graphene is a gapless semiconductor with a high charge carrier mobility. In an attempt to apply this...
We report unique electrical anisotropy and dielectric properties of graphene oxide (GO) thin films, ...
There are a large number of atomically thin graphitic films with a structure similar to that of grap...
For graphene to be utilized in the digital electronics industry the challenge is to create bandgaps ...
© 2017 IOP Publishing Ltd. Van der Waals structures based on two-dimensional materials have been con...
Heterostructures based on graphene were investigated by using density function theory (DFT). It is f...
To solve a challenging issue, i.e., the gap opening of graphene, we designed several heterojunctions...
Developing graphene-based nanoelectronics hinges on opening a band gap in the electronic structure o...
We investigate band-gap tuning of bilayer graphene between hexagonal boron nitride sheets, by extern...
Developing graphene-based nanoelectronics hinges on opening a band gap in the electronic structure o...
The geometries and electronic characteristics of the graphene monoxide (GMO) bilayer are predicted v...
We provide the first systematic ab initio investigation of the possibility to create a band gap in f...
Structural and electronic properties of two-dimensional stanene and graphene heterostructure (Sn/G) ...
Two-dimensional (2D) tin monoxide (SnO) has attracted much attention owing to its distinctive electr...
Controlled reduction of graphene oxide (GO) is a promising method to tune the electronic band gap of...
Graphene is a gapless semiconductor with a high charge carrier mobility. In an attempt to apply this...
We report unique electrical anisotropy and dielectric properties of graphene oxide (GO) thin films, ...
There are a large number of atomically thin graphitic films with a structure similar to that of grap...
For graphene to be utilized in the digital electronics industry the challenge is to create bandgaps ...