Single layer graphene nano-gaps are fabricated by applying the method of feedback-controlled electroburning to notched ribbon devices, which are plasma etched from CVD grown graphene that is wet-transferred onto pre-patterned metal electrodes. Electrical and structural characterizations show that nanometer size gaps form at the center of the notch. We have processed a total number of 1079 devices using this method with a fabrication yield of 71%. Our results demonstrate precise control over the size and position of the nano-gaps, and open up the possibility of graphene electrodes for large-scale integrated molecular devices
International audienceGraphene nanogap systems are promising research tools for molecular electronic...
We report on thefabrication of a molecular transistor based on a single molecule trapped in a few-la...
A molecular-scale gap array is introduced into a single-layer graphene sheet by a lithographic dash-...
Single layer graphene nano-gaps are fabricated by applying the method of feedback-controlled electro...
Herein we demonstrate the controlled and reproducible fabrication of sub-5 nm wide gaps in single-la...
We report a simple and highly efficient method for creating graphene nanostructures with gaps that c...
Graphene-based electrodes are very promising for molecular electronics and spintronics. Here we repo...
This work reports on a method to open nanoscale gaps in h-shaped graphene nano-constrictions by elec...
Graphene nano-gap electrodes have been of recent interest in a variety of fields, ranging from molec...
Graphene under high voltage bias produces a wealth of phenomena due to high temperatures reached via...
We report a simple and highly efficient method for creating graphene nanostructures with gaps that c...
International audienceGraphene nanoribbons are fundamental components to the development of graphene...
Recently, global scientists have drawn attentions of study of graphene. Graphene has a lot of potent...
Graphene nanogap systems are promising research tools for molecular electronics, memories, and nanod...
Single-molecule electronics have attracted widespread attention for both basic scientific interests ...
International audienceGraphene nanogap systems are promising research tools for molecular electronic...
We report on thefabrication of a molecular transistor based on a single molecule trapped in a few-la...
A molecular-scale gap array is introduced into a single-layer graphene sheet by a lithographic dash-...
Single layer graphene nano-gaps are fabricated by applying the method of feedback-controlled electro...
Herein we demonstrate the controlled and reproducible fabrication of sub-5 nm wide gaps in single-la...
We report a simple and highly efficient method for creating graphene nanostructures with gaps that c...
Graphene-based electrodes are very promising for molecular electronics and spintronics. Here we repo...
This work reports on a method to open nanoscale gaps in h-shaped graphene nano-constrictions by elec...
Graphene nano-gap electrodes have been of recent interest in a variety of fields, ranging from molec...
Graphene under high voltage bias produces a wealth of phenomena due to high temperatures reached via...
We report a simple and highly efficient method for creating graphene nanostructures with gaps that c...
International audienceGraphene nanoribbons are fundamental components to the development of graphene...
Recently, global scientists have drawn attentions of study of graphene. Graphene has a lot of potent...
Graphene nanogap systems are promising research tools for molecular electronics, memories, and nanod...
Single-molecule electronics have attracted widespread attention for both basic scientific interests ...
International audienceGraphene nanogap systems are promising research tools for molecular electronic...
We report on thefabrication of a molecular transistor based on a single molecule trapped in a few-la...
A molecular-scale gap array is introduced into a single-layer graphene sheet by a lithographic dash-...