Implementing the quantum-mechanical Kubo-Greenwood formalism for the numerical calculation of dc conductivity, we demonstrate that the electron transport properties of a graphene layer can be tailored through the combined effect of defects (point and line scatterers) and strains (uniaxial tension and shear), which are commonly present in a graphene sample due to the features of its growth procedure and when the sample is used in devices. Motivated by two experimental works (He X
The current-voltage characteristics of armchair graphene nanoribbons under a local uniaxial tension ...
Graphene, a one atom-thick membrane, has sparked out intense research activities from both experimen...
Graphene, a one atom-thick membrane, has sparked out intense research activities from both experimen...
We measure ballistic charge conductivity in strained suspended graphene and observe theoretically pr...
We study the effect of extended charge defects in electronic transport properties of graphene. Exten...
We study the effect of extended charge defects in electronic transport properties of graphene. Exten...
We study the e ect of extended charge defects in electronic transport properties of graphene. Exten...
Grain boundaries (GBs) are ubiquitous in polycrystalline graphene materials obtained by various grow...
Strain has been known to modify the electric and optical properties of graphene. This phenomenon has...
Strain has been known to modify the electric and optical properties of graphene. This phenomenon has...
We investigate the conductivity of graphene sheet deformed over a gate. The effect of the deformatio...
Applying shear strain has been considered as a hopeful method to open a band gap of graphene. To stu...
As most materials available at the macroscopic scale, graphene samples usually appear in a polycryst...
The strain dependence of conductance of monolayer graphene has been studied experimentally here. The...
Graphene is a single atomic sheet of graphite that exhibits a diverse range of unique properties. Th...
The current-voltage characteristics of armchair graphene nanoribbons under a local uniaxial tension ...
Graphene, a one atom-thick membrane, has sparked out intense research activities from both experimen...
Graphene, a one atom-thick membrane, has sparked out intense research activities from both experimen...
We measure ballistic charge conductivity in strained suspended graphene and observe theoretically pr...
We study the effect of extended charge defects in electronic transport properties of graphene. Exten...
We study the effect of extended charge defects in electronic transport properties of graphene. Exten...
We study the e ect of extended charge defects in electronic transport properties of graphene. Exten...
Grain boundaries (GBs) are ubiquitous in polycrystalline graphene materials obtained by various grow...
Strain has been known to modify the electric and optical properties of graphene. This phenomenon has...
Strain has been known to modify the electric and optical properties of graphene. This phenomenon has...
We investigate the conductivity of graphene sheet deformed over a gate. The effect of the deformatio...
Applying shear strain has been considered as a hopeful method to open a band gap of graphene. To stu...
As most materials available at the macroscopic scale, graphene samples usually appear in a polycryst...
The strain dependence of conductance of monolayer graphene has been studied experimentally here. The...
Graphene is a single atomic sheet of graphite that exhibits a diverse range of unique properties. Th...
The current-voltage characteristics of armchair graphene nanoribbons under a local uniaxial tension ...
Graphene, a one atom-thick membrane, has sparked out intense research activities from both experimen...
Graphene, a one atom-thick membrane, has sparked out intense research activities from both experimen...