We report how individual defects affect single graphene nanoribbons by scanning tunneling and atomic force microscopy pulling experiments simultaneously accessing their electrical and mechanical properties. The on-surface polymerization of the graphene nanoribbons is controlled by cooperative effects as theoretically suggested. Further, we find, with the help of atomistic simulations, that defects substantially vary the molecule-substrate coupling and drastically increase the flexibility of the graphene nanoribbons while keeping their desirable electronic properties intact
Semiconducting graphene nanoribbons (GNRs) are envisioned to play an important role in future electr...
We report a systematic analysis of pore-edge interactions in graphene nanoribbons (GNRs) and their o...
The super-high strength of single-layer graphene has attracted great interest. In practice, defects ...
We report how individual defects affect single graphene nanoribbons by scanning tunneling and atomic...
Graphene is a truly two-dimensional atomic crystal with exceptional electronic and mechanical proper...
Low-dimensional nanostructures are expected to have vast number of applications in the future. Part...
Molecular wires will be an essential part in future nanotechnology as they are necessary to connect ...
Graphene nanoribbons could potentially be used to create molecular wires with tailored conductance p...
We present a first-principles study of the migration and recombination of edge defects (carbon adato...
Sensoy, Mehmet Gokhan/0000-0003-4815-8061WOS: 000456876500012We investigate the transport properties...
Nano-objects have unique properties due to their sizes, shapes and structure. When electronic proper...
We study the morphologic interaction between graphene and Si nanowires on a SiO2 substrate, using mo...
On-surface synthesis has recently emerged as an effective route towards the atomically precise fabri...
Graphene nanoribbons (GNRs) are strips of graphene, featuring narrow widths at the nanometer scale. ...
By means of tight-binding atomistic simulations we study a family of native defects in graphene rece...
Semiconducting graphene nanoribbons (GNRs) are envisioned to play an important role in future electr...
We report a systematic analysis of pore-edge interactions in graphene nanoribbons (GNRs) and their o...
The super-high strength of single-layer graphene has attracted great interest. In practice, defects ...
We report how individual defects affect single graphene nanoribbons by scanning tunneling and atomic...
Graphene is a truly two-dimensional atomic crystal with exceptional electronic and mechanical proper...
Low-dimensional nanostructures are expected to have vast number of applications in the future. Part...
Molecular wires will be an essential part in future nanotechnology as they are necessary to connect ...
Graphene nanoribbons could potentially be used to create molecular wires with tailored conductance p...
We present a first-principles study of the migration and recombination of edge defects (carbon adato...
Sensoy, Mehmet Gokhan/0000-0003-4815-8061WOS: 000456876500012We investigate the transport properties...
Nano-objects have unique properties due to their sizes, shapes and structure. When electronic proper...
We study the morphologic interaction between graphene and Si nanowires on a SiO2 substrate, using mo...
On-surface synthesis has recently emerged as an effective route towards the atomically precise fabri...
Graphene nanoribbons (GNRs) are strips of graphene, featuring narrow widths at the nanometer scale. ...
By means of tight-binding atomistic simulations we study a family of native defects in graphene rece...
Semiconducting graphene nanoribbons (GNRs) are envisioned to play an important role in future electr...
We report a systematic analysis of pore-edge interactions in graphene nanoribbons (GNRs) and their o...
The super-high strength of single-layer graphene has attracted great interest. In practice, defects ...