Journal of Physics Condensed Matter · 2012 · 38 citations · 60 references
Natural SciencesMaterials EngineeringMaterials ScienceNanomaterialsSurface ChemistrySurface ScienceChemical Vapor DepositionEpitaxial GrowthSurface CrystallographySurface PhysicsThin-film MaterialsTransition Metal ChemistryChemical Vapor Deposition Of GrapheneChemical Vapor Deposition PrecursorsEpitaxial Film GrowthGrapheneGraphene SynthesisLattice MismatchLattice Mismatch Effects
The epitaxial growth of graphene on transition metal surfaces by ex situ deposition of liquid precursors (LPD, liquid phase deposition) is compared to the standard method of chemical vapor deposition (CVD). The performance of LPD strongly depends on the particular transition metal surface. For Pt(111), Ir(111) and Rh(111), the formation of a graphene monolayer is hardly affected by the way the precursor is provided. In the case of Ni(111), the growth of graphene strongly depends on the applied synthesis method. For CVD of propene on Ni(111), a 1 × 1 structure as expected from the vanishing lattice mismatch is observed. However, in spite of the nearly perfect lattice match, a multi-domain structure with 1 × 1 and two additional rotated domains is obtained when an oxygen-containing precursor (acetone) is provided ex situ.
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