Recently, Graphene Nanoribbon Field Effect Transistors (GNR FETs) attract a great deal of attention due to their better performance in comparison with conventional devices. In this paper, channel length Modulation (CLM) effect on the electrical characteristics of GNR FETs is analytically studied and modeled. To this end, the special distribution of the electric potential along the channel and current-voltage characteristic of the device is modeled. The obtained results of analytical model are compared to the experimental data of published works. As a result, it is observable that considering the effect of CLM, the current-voltage response of GNR FET is more realistic
This article was published in Micro and Nano Letters [© 2015 Published by The Institution of Enginee...
Novel analytical models for surface field distribution and saturation region length for double gate ...
In this paper, the opportunities offered by monoatomic layers of graphene for the fabrication of hig...
A compact analytical approach for calculation of effective channel length in graphene nanoribbon fie...
An approach to simulate the steady-state and small-signal behavior of GNR MOSFETs (graphene nanoribb...
In this paper we present four simple analytical threshold voltage model for short- channel and lengt...
This paper presents a new approach to study the effect of carrier generation on the current of graph...
Graphene nanoribbons (GNRs) have drawn significant research interest due to its excellent electronic...
One-dimensional nanostructures of graphene such as graphene nanoribbons (GNRs) can prove attractive ...
Length of saturation region (LVSR) as an important parameter in nanoscale devices, which controls th...
An approach to simulate the steady-state and small-signal behavior of GNR MOSFETs (graphene nanoribb...
We present a semi-analytical model incorporating the effects of edge bond relaxation, the third near...
This letter presents a detailed study of transport in graphene field-effect transistors (GFETs) with...
Graphene, a single-sheet layer of graphite hold interesting property such as high electron mobility....
The approaching scaling of Field Effect Transistors (FETs) in nanometer scale assures the smaller di...
This article was published in Micro and Nano Letters [© 2015 Published by The Institution of Enginee...
Novel analytical models for surface field distribution and saturation region length for double gate ...
In this paper, the opportunities offered by monoatomic layers of graphene for the fabrication of hig...
A compact analytical approach for calculation of effective channel length in graphene nanoribbon fie...
An approach to simulate the steady-state and small-signal behavior of GNR MOSFETs (graphene nanoribb...
In this paper we present four simple analytical threshold voltage model for short- channel and lengt...
This paper presents a new approach to study the effect of carrier generation on the current of graph...
Graphene nanoribbons (GNRs) have drawn significant research interest due to its excellent electronic...
One-dimensional nanostructures of graphene such as graphene nanoribbons (GNRs) can prove attractive ...
Length of saturation region (LVSR) as an important parameter in nanoscale devices, which controls th...
An approach to simulate the steady-state and small-signal behavior of GNR MOSFETs (graphene nanoribb...
We present a semi-analytical model incorporating the effects of edge bond relaxation, the third near...
This letter presents a detailed study of transport in graphene field-effect transistors (GFETs) with...
Graphene, a single-sheet layer of graphite hold interesting property such as high electron mobility....
The approaching scaling of Field Effect Transistors (FETs) in nanometer scale assures the smaller di...
This article was published in Micro and Nano Letters [© 2015 Published by The Institution of Enginee...
Novel analytical models for surface field distribution and saturation region length for double gate ...
In this paper, the opportunities offered by monoatomic layers of graphene for the fabrication of hig...