Combined fast X-ray photoelectron spectroscopy and density functional theory calculations reveal the presence of two types of hydrogen adsorbate structures at the graphene/Ir(111) interface, namely, graphane-like islands and hydrogen dimer structures. While the former give rise to a periodic pattern, dimers tend to destroy the periodicity. Our data reveal distinctive growth rates and stability of both types of structures, thereby allowing one to obtain well-defined patterns of hydrogen clusters. The ability to control and manipulate the formation and size of hydrogen structures on graphene facilitates tailoring of its properties for a wide range of applications by means of covalent functionalization
International audienceHydrogen functionalization of graphene by exposure to vibrationally excited H2...
International audienceHydrogen functionalization of graphene by exposure to vibrationally excited H2...
International audienceHydrogen functionalization of graphene by exposure to vibrationally excited H2...
Combined fast X-ray photoelectron spectroscopy and density functional theory calculations reveal the...
Combined fast X-ray photoelectron spectroscopy and density functional theory calculations reveal the...
Combined fast X-ray photoelectron spectroscopy and density functional theory calculations reveal the...
International audienceHydrogen atom adsorption on high-quality graphene on Ir(111) [gr/Ir(111)] is i...
International audienceHydrogen atom adsorption on high-quality graphene on Ir(111) [gr/Ir(111)] is i...
Hydrogen functionalization of graphene by exposure to vibrationally excited H2 molecules is investig...
Band gap engineering in hydrogen functionalized graphene is demonstrated by changing the symmetry of...
Hydrogen functionalization of graphene by exposure to vibrationally excited H2 molecules is investig...
Hydrogen functionalization of graphene by exposure to vibrationally excited H2 molecules is investig...
Hydrogen functionalization of graphene by exposure to vibrationally excited H<sub>2</sub> molecules ...
Using high resolution X-ray photoelectron spectroscopy and scanning tunneling microscopy we study th...
Using high resolution X-ray photoelectron spectroscopy and scanning tunneling microscopy we study th...
International audienceHydrogen functionalization of graphene by exposure to vibrationally excited H2...
International audienceHydrogen functionalization of graphene by exposure to vibrationally excited H2...
International audienceHydrogen functionalization of graphene by exposure to vibrationally excited H2...
Combined fast X-ray photoelectron spectroscopy and density functional theory calculations reveal the...
Combined fast X-ray photoelectron spectroscopy and density functional theory calculations reveal the...
Combined fast X-ray photoelectron spectroscopy and density functional theory calculations reveal the...
International audienceHydrogen atom adsorption on high-quality graphene on Ir(111) [gr/Ir(111)] is i...
International audienceHydrogen atom adsorption on high-quality graphene on Ir(111) [gr/Ir(111)] is i...
Hydrogen functionalization of graphene by exposure to vibrationally excited H2 molecules is investig...
Band gap engineering in hydrogen functionalized graphene is demonstrated by changing the symmetry of...
Hydrogen functionalization of graphene by exposure to vibrationally excited H2 molecules is investig...
Hydrogen functionalization of graphene by exposure to vibrationally excited H2 molecules is investig...
Hydrogen functionalization of graphene by exposure to vibrationally excited H<sub>2</sub> molecules ...
Using high resolution X-ray photoelectron spectroscopy and scanning tunneling microscopy we study th...
Using high resolution X-ray photoelectron spectroscopy and scanning tunneling microscopy we study th...
International audienceHydrogen functionalization of graphene by exposure to vibrationally excited H2...
International audienceHydrogen functionalization of graphene by exposure to vibrationally excited H2...
International audienceHydrogen functionalization of graphene by exposure to vibrationally excited H2...