The structural evolution of graphene on Ni(111) is investigated as a function of growth temperature by scanning tunneling microscopy (STM). Low temperature (400-500 degrees C) growth results in a continuous but highly defective film with small ordered graphene domains and disordered domains composed of Stone-Wales (SW)-like defects. As the growth temperature is increased, the disordered domains shrink leaving small clusters of defects alongside epitaxially matched graphene. Density functional theory (DFT) calculations indicate the crucial role of the metallic support for the healing of SW defects, as the interaction with the substrate leads to a stabilization of the reaction intermediate. This work highlights the effect of the graphene-subs...
The formation and kinetics of single and double vacancies in graphene chemical vapor deposition (CVD...
Grasping the fundamentals of graphene growth is vital for graphene synthesis. By employing classical...
International audienceGraphene (Gr) is known to be an excellent barrier preventing atoms and molecul...
Graphene has a close lattice match to the Ni(111) surface, resulting in a preference for 1 × 1 confi...
Graphene has a close lattice match to the Ni(111) surface, resulting in a preference for 1 x 1 confi...
openIn this thesis, we start analysing epitaxial graphene on single crystal (111) and (100) Nickel s...
Atomic-scale description of the structure of graphene edges on Ni(111), both <i>during</i> and <i>po...
Through a combined scanning tunneling microscopy (STM) and density functional theory (DFT) approach,...
Through a combined scanning tunneling microscopy (STM) and density functional theory (DFT) approach,...
We report a systematic ab-initio density functional theory investigation of Ni(111) surface alloyed...
Through a combined scanning tunneling microscopy (STM) and density functional theory (DFT) approach,...
The healing of graphene grown from a metallic substrate is investigated using tight-binding Monte Ca...
Direct incorporation of Ni adatoms during graphene growth on Ni( 111) is evidenced by scanning tunne...
8Direct incorporation of Ni adatoms during graphene growth on Ni(111) is evidenced by scanning tunne...
The formation and kinetics of single and double vacancies in graphene chemical vapor deposition (CVD...
The formation and kinetics of single and double vacancies in graphene chemical vapor deposition (CVD...
Grasping the fundamentals of graphene growth is vital for graphene synthesis. By employing classical...
International audienceGraphene (Gr) is known to be an excellent barrier preventing atoms and molecul...
Graphene has a close lattice match to the Ni(111) surface, resulting in a preference for 1 × 1 confi...
Graphene has a close lattice match to the Ni(111) surface, resulting in a preference for 1 x 1 confi...
openIn this thesis, we start analysing epitaxial graphene on single crystal (111) and (100) Nickel s...
Atomic-scale description of the structure of graphene edges on Ni(111), both <i>during</i> and <i>po...
Through a combined scanning tunneling microscopy (STM) and density functional theory (DFT) approach,...
Through a combined scanning tunneling microscopy (STM) and density functional theory (DFT) approach,...
We report a systematic ab-initio density functional theory investigation of Ni(111) surface alloyed...
Through a combined scanning tunneling microscopy (STM) and density functional theory (DFT) approach,...
The healing of graphene grown from a metallic substrate is investigated using tight-binding Monte Ca...
Direct incorporation of Ni adatoms during graphene growth on Ni( 111) is evidenced by scanning tunne...
8Direct incorporation of Ni adatoms during graphene growth on Ni(111) is evidenced by scanning tunne...
The formation and kinetics of single and double vacancies in graphene chemical vapor deposition (CVD...
The formation and kinetics of single and double vacancies in graphene chemical vapor deposition (CVD...
Grasping the fundamentals of graphene growth is vital for graphene synthesis. By employing classical...
International audienceGraphene (Gr) is known to be an excellent barrier preventing atoms and molecul...