Synthesis and characterization of graphene on copper foil via atmospheric pressure chemical vapor deposition method and its impact on electrical properties - ScienceDirect
Fig. 1. Mechanism of BLG growth on copper foil and fabrication of Cu/GR composites. (a) growth rate and location of BLG, (b) Synchronous growth of graphene on copper substrate. (A colour version of this figure can be viewed online.) Table 1. Processing route of copper/graphene composites with electrical conductivities evaluation. Fig. 2. Schematic diagram of temperature curve during graphene growth process. (A colour version of this figure can be viewed online.) Fig. 3. Fabrication of Cu/GR composites. (a) HP-OFC substrate, (b) APCVD growth process of graphene on copper foil, (c) graphene/copper/graphene (GR/Cu/GR) foil, (d) Copper nanofilm coating, (e) Cu/GR composite. (A colour version of this figure can be viewed online.) Fig. 4. XRD pattern of copper foil before and after APCVD graphene growth. (A colour version of this figure can be viewed online.) Fig. 5. EBSD images with Cu (111) pole figure and grain size distribution of the (a) copper foil annealed at atmospheric pressure for
Fig. 1. Mechanism of BLG growth on copper foil and fabrication of Cu/GR composites. (a) growth rate and location of BLG, (b) Synchronous growth of graphene on copper substrate. (A colour version of this figure can be viewed online.) Table 1. Processing route of copper/graphene composites with electrical conductivities evaluation. Fig. 2. Schematic diagram of temperature curve during graphene growth process. (A colour version of this figure can be viewed online.) Fig. 3. Fabrication of Cu/GR composites. (a) HP-OFC substrate, (b) APCVD growth process of graphene on copper foil, (c) graphene/copp
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