A biosensor device, built from graphene nanoribbons (GNRs) with nanopores, was designed and studied by first-principles quantum transport simulation. We have demonstrated the intrinsic transport properties of the device and the effect of different nucleobases on device properties when they are located in the nanopores of GNRs. It was found that the device's current changes remarkably with the species of nucleobases, which originates from their different chemical compositions and coupling strengths with GNRs. In addition, our first-principles results clearly reveal that the distinguished ability of a device's current depends on the position of the pore to some extent. These results may present a new way to read off the nucleobases ...
DoctorThe noteworthy advances in nanoscience and nanotechnology over the last decades allow one to m...
To demonstrate the potential of nanopores in bilayer graphene for DNA sequencing, we computed the cu...
Graphene-based nanopore devices are promising candidates for next-generation DNA sequencing. Here we...
DNA sequencing techniques are critical in order to investigate genes’ functions. Obtaining fa...
DNA sequencing witnessed significant research efforts to improve its efficiency and to reduce the pr...
ABSTRACT We report an ab initio density functional theory study of the interaction of four nucleobas...
To demonstrate the potential of nanopores in bilayer graphene for DNA sequencing, we computed the cu...
Over the past decade, interest in using graphene in condensed-matter physics and materials science a...
We study two-terminal devices for DNA sequencing that consist of a metallic graphene nanoribbon with...
Nanopore-based single-molecule detection and analysis have been pursued intensively over the past de...
Nanopore-based single-molecule detection and analysis have been pursued intensively over the past de...
Graphene nanopore based sensor devices have shown great potential for the detection of DNA. To under...
Over the past decade, interest in using graphene in condensed-matter physics and materials science a...
Fast, cost effective, single-shot DNA sequencing could be the prelude of a new era in genetics. As D...
To demonstrate the potential of nanopores in bilayer graphene for DNA sequencing, we computed the cu...
DoctorThe noteworthy advances in nanoscience and nanotechnology over the last decades allow one to m...
To demonstrate the potential of nanopores in bilayer graphene for DNA sequencing, we computed the cu...
Graphene-based nanopore devices are promising candidates for next-generation DNA sequencing. Here we...
DNA sequencing techniques are critical in order to investigate genes’ functions. Obtaining fa...
DNA sequencing witnessed significant research efforts to improve its efficiency and to reduce the pr...
ABSTRACT We report an ab initio density functional theory study of the interaction of four nucleobas...
To demonstrate the potential of nanopores in bilayer graphene for DNA sequencing, we computed the cu...
Over the past decade, interest in using graphene in condensed-matter physics and materials science a...
We study two-terminal devices for DNA sequencing that consist of a metallic graphene nanoribbon with...
Nanopore-based single-molecule detection and analysis have been pursued intensively over the past de...
Nanopore-based single-molecule detection and analysis have been pursued intensively over the past de...
Graphene nanopore based sensor devices have shown great potential for the detection of DNA. To under...
Over the past decade, interest in using graphene in condensed-matter physics and materials science a...
Fast, cost effective, single-shot DNA sequencing could be the prelude of a new era in genetics. As D...
To demonstrate the potential of nanopores in bilayer graphene for DNA sequencing, we computed the cu...
DoctorThe noteworthy advances in nanoscience and nanotechnology over the last decades allow one to m...
To demonstrate the potential of nanopores in bilayer graphene for DNA sequencing, we computed the cu...
Graphene-based nanopore devices are promising candidates for next-generation DNA sequencing. Here we...