In this letter, we investigate the transport properties of one-dimensional semiconducting Graphene nanoribbons (GNRs) with parabolic band structure near the Dirac point. The analytical model of effective mobility is developed by using the conductance approach, which differs from the conventional method of extracting the effective mobility using the well-known Matthiessen rule. Graphene nanoribbons conductance model developed was applied in the Drude model to obtain the effective mobility, which then gives nearly close comparison with the experimental data
A frequently stated advantage of gapless graphene is its high carrier mobility. However, when a nonz...
The successful use of graphene nanoribbons (GNRs) in a variety of applications in nanoelectronics de...
We study numerically the effects of edge and bulk disorder on the conductance of graphene nanoribbon...
Many experimental measurements have been done on GNR conductance. In this paper, analytical model of...
The carrier mobility in low-field specifically in parabolic energy region of one-dimensional graphen...
Considering the importance of doing conductance studies, this manuscript describes the development o...
Many studies on low-energy limit indicate that band energy of graphene nanoribbon research (GNR) is ...
In recent years, there has been much interest in modelling graphene nanoribbons as they have great p...
Bilayer graphene nanoribbon (BGN) with tunable band gap which can be controlled by an external elect...
Abstract Planar carbon-based electronic devices, including metal/semiconductor junctions, transistor...
The semiconducting electronic properties of graphene nanoscroll (GNS) are very much related to its g...
An extended tight-binding model that includes up to third-nearest-neighbor hopping and a Hubbard mea...
We study electronic transport in graphene nanoribbons with rough edges. We first consider a model of...
Abstract. In this work, we study quantum transport properties of superlattice-graphene nanoribbons (...
The quantum transport properties of graphene nanoribbon networks are investigated using first-princi...
A frequently stated advantage of gapless graphene is its high carrier mobility. However, when a nonz...
The successful use of graphene nanoribbons (GNRs) in a variety of applications in nanoelectronics de...
We study numerically the effects of edge and bulk disorder on the conductance of graphene nanoribbon...
Many experimental measurements have been done on GNR conductance. In this paper, analytical model of...
The carrier mobility in low-field specifically in parabolic energy region of one-dimensional graphen...
Considering the importance of doing conductance studies, this manuscript describes the development o...
Many studies on low-energy limit indicate that band energy of graphene nanoribbon research (GNR) is ...
In recent years, there has been much interest in modelling graphene nanoribbons as they have great p...
Bilayer graphene nanoribbon (BGN) with tunable band gap which can be controlled by an external elect...
Abstract Planar carbon-based electronic devices, including metal/semiconductor junctions, transistor...
The semiconducting electronic properties of graphene nanoscroll (GNS) are very much related to its g...
An extended tight-binding model that includes up to third-nearest-neighbor hopping and a Hubbard mea...
We study electronic transport in graphene nanoribbons with rough edges. We first consider a model of...
Abstract. In this work, we study quantum transport properties of superlattice-graphene nanoribbons (...
The quantum transport properties of graphene nanoribbon networks are investigated using first-princi...
A frequently stated advantage of gapless graphene is its high carrier mobility. However, when a nonz...
The successful use of graphene nanoribbons (GNRs) in a variety of applications in nanoelectronics de...
We study numerically the effects of edge and bulk disorder on the conductance of graphene nanoribbon...