We report the transport behavior of bilayer graphene grown by thermal chemical vapor deposition. The bilayer graphene films annealed at 700 °C in a furnace under Ar atmosphere exhibited transitions from a metal to a semiconductor or insulator, with temperature-dependent resistances. This modulation of electrical properties could be explained by two possible mechanisms: variable range hopping (VRH) and thermally activated (TA) conduction. In particular, Anderson localization was suggested for the metal-insulator (MI) transition in the transport of bilayer graphene, shifting the transition point to room temperature by an increase in the disorder up to 7.5 × 1013 cm−2
We have studied temperature dependences of electron transport in graphene and its bilayer and found ...
This study investigated the transport properties of single-layer reduced graphene oxides (rGOs). The...
Graphene in its purest form is expected to exhibit a semiconducting to metallic transition in its te...
The Chemical Vapor Deposition (CVD) of graphene is nowadays one of the most promising methods for th...
The thermal transport properties of graphene are strongly influenced by its contact environment and ...
ABSTRACT: While chemical vapor deposition (CVD) promises a scalable method to produce large-area gra...
Thermal energy transport across the interfaces of physically and chemically modified graphene with t...
We numerically study the disorder effect on the thermoelectric and thermal transport in bilayer grap...
We explore the contributions to the electrical resistance of monolayer and bilayer graphene, reveali...
Thermal energy transport across the interfaces of physically and chemically modified graphene with t...
We have performed a detailed study of the intrinsic electrical conduction process in individual mono...
While chemical vapor deposition (CVD) promises a scalable method to produce large-area graphene, CVD...
We numerically study the thermoelectric transport in AB- and AA-stacked bilayer graphene in the pres...
Graphene, consisting of a single layer of carbon atoms, is being widely studied for its interesting ...
We have performed a detailed study of the intrinsic electrical conduction process in individual mono...
We have studied temperature dependences of electron transport in graphene and its bilayer and found ...
This study investigated the transport properties of single-layer reduced graphene oxides (rGOs). The...
Graphene in its purest form is expected to exhibit a semiconducting to metallic transition in its te...
The Chemical Vapor Deposition (CVD) of graphene is nowadays one of the most promising methods for th...
The thermal transport properties of graphene are strongly influenced by its contact environment and ...
ABSTRACT: While chemical vapor deposition (CVD) promises a scalable method to produce large-area gra...
Thermal energy transport across the interfaces of physically and chemically modified graphene with t...
We numerically study the disorder effect on the thermoelectric and thermal transport in bilayer grap...
We explore the contributions to the electrical resistance of monolayer and bilayer graphene, reveali...
Thermal energy transport across the interfaces of physically and chemically modified graphene with t...
We have performed a detailed study of the intrinsic electrical conduction process in individual mono...
While chemical vapor deposition (CVD) promises a scalable method to produce large-area graphene, CVD...
We numerically study the thermoelectric transport in AB- and AA-stacked bilayer graphene in the pres...
Graphene, consisting of a single layer of carbon atoms, is being widely studied for its interesting ...
We have performed a detailed study of the intrinsic electrical conduction process in individual mono...
We have studied temperature dependences of electron transport in graphene and its bilayer and found ...
This study investigated the transport properties of single-layer reduced graphene oxides (rGOs). The...
Graphene in its purest form is expected to exhibit a semiconducting to metallic transition in its te...