Scalable growth is essential for graphene-based applications. Recent development has enabled the achievement of the scalability by use of chemical vapor deposition (CVD) at 1000°C with copper as a catalyst and methane as a precursor gas. Here we report our observation of early stage of graphene growth based on an ethylene-based CVD method, capable of reducing the growth temperature to 770°C for monolayer graphene growth on copper. We track the early stages of slow growth under low ethylene flow rate and observe the graphene domain evolution by varying the temperature and growth time. Temperature-dependence of graphene domain density gives an apparent activation energy of 1.0 eV for nucleation
hemical vapor deposition (CVD) is the most promising route toward scalable graphene production and i...
In this work, single-layer graphene with compact millimeter-size domains has been obtained by chemic...
Using low-pressure chemical vapor deposition (LPCVD), we, for the first time, realize the self-limit...
Scalable growth is essential for graphene-based applications. Recent development has enabled the ach...
Chemical vapor deposition on copper is the most widely used method to synthesize graphene at large s...
We present our observations made during the early stages of graphene growth employing an ethylene-ba...
Chemical vapor deposition on copper is the most widely used method to synthesize graphene at large s...
We show that monolayer graphene can be grown isothermally on polycrystalline copper foils via ultra ...
We show that monolayer graphene can be grown isothermally on polycrystalline copper foils via ultra ...
We show that monolayer graphene can be grown isothermally on polycrystalline copper foils via ultra ...
Graphene growth at low temperatures (below 500 oC) on copper catalyst by CVD method was studied. The...
The fundamental properties of graphene are making it an attractive material for a wide variety of ap...
Recently, chemical vapor deposition (CVD) on copper has been becoming a main method for preparing la...
Recently, chemical vapor deposition (CVD) on copper has been becoming a main method for preparing la...
he route toward the commercial ex-ploitation of graphene's unique proper-ties hinges entirely o...
hemical vapor deposition (CVD) is the most promising route toward scalable graphene production and i...
In this work, single-layer graphene with compact millimeter-size domains has been obtained by chemic...
Using low-pressure chemical vapor deposition (LPCVD), we, for the first time, realize the self-limit...
Scalable growth is essential for graphene-based applications. Recent development has enabled the ach...
Chemical vapor deposition on copper is the most widely used method to synthesize graphene at large s...
We present our observations made during the early stages of graphene growth employing an ethylene-ba...
Chemical vapor deposition on copper is the most widely used method to synthesize graphene at large s...
We show that monolayer graphene can be grown isothermally on polycrystalline copper foils via ultra ...
We show that monolayer graphene can be grown isothermally on polycrystalline copper foils via ultra ...
We show that monolayer graphene can be grown isothermally on polycrystalline copper foils via ultra ...
Graphene growth at low temperatures (below 500 oC) on copper catalyst by CVD method was studied. The...
The fundamental properties of graphene are making it an attractive material for a wide variety of ap...
Recently, chemical vapor deposition (CVD) on copper has been becoming a main method for preparing la...
Recently, chemical vapor deposition (CVD) on copper has been becoming a main method for preparing la...
he route toward the commercial ex-ploitation of graphene's unique proper-ties hinges entirely o...
hemical vapor deposition (CVD) is the most promising route toward scalable graphene production and i...
In this work, single-layer graphene with compact millimeter-size domains has been obtained by chemic...
Using low-pressure chemical vapor deposition (LPCVD), we, for the first time, realize the self-limit...