The performance of III-V inversion-mode and junctionless nanowire field-effect transistors are investigated using quantum simulations and are compared with those of silicon devices. We show that at ultrascaled dimensions silicon can offer better electrical performance in terms of short-channel effects and drive current than other materials. This is explained simply by suppression of source-drain tunneling due to the higher effective mass, shorter natural length, and the higher density of states in the confined channel. We also confirm that III-V junctionless nanowire transistors are more immune to short-channel effects than conventional inversion-mode III-V nanowire field-effect transistors. (C) 2013 AIP Publishing LLC
This paper discusses the electronic transport properties of nanowire field-effect transistors (NW-FE...
In this work we investigate the impact of quantum mechanical effects on the device performance of n-...
III-V nanowire transistors are promising candidates for very high frequency electronics applications...
The performance of germanium and silicon inversion-mode and junctionless nanowire field-effect trans...
The performance of germanium and silicon inversion-mode and junctionless nanowire field-effect trans...
In this work we show that junctionless nanowire transistor (JNT) exhibits lower degree of ballistici...
Inspired by recent experimental realizations and theoretical simulations of thin silicon nanowire-ba...
Silicon nanowires have numerous potential applications, including transistors, memories, photovoltai...
—This work investigates the impact of quantum mechanical effects on the device performance of n-typ...
The experimental results from 8 nm diameter silicon nanowire junctionless field effect transistors w...
Silicon nanowires have numerous potential applications, including transistors, memories, photovoltai...
Silicon nanowires have numerous potential applications, including transistors, memories, photovoltai...
Silicon nanowires have numerous potential applications, including transistors, memories, photovoltai...
In this paper, we have studied the impact of quantum confinement on the performance of n-type silico...
In this paper, we have studied the impact of quantum confinement on the performance of n-type silico...
This paper discusses the electronic transport properties of nanowire field-effect transistors (NW-FE...
In this work we investigate the impact of quantum mechanical effects on the device performance of n-...
III-V nanowire transistors are promising candidates for very high frequency electronics applications...
The performance of germanium and silicon inversion-mode and junctionless nanowire field-effect trans...
The performance of germanium and silicon inversion-mode and junctionless nanowire field-effect trans...
In this work we show that junctionless nanowire transistor (JNT) exhibits lower degree of ballistici...
Inspired by recent experimental realizations and theoretical simulations of thin silicon nanowire-ba...
Silicon nanowires have numerous potential applications, including transistors, memories, photovoltai...
—This work investigates the impact of quantum mechanical effects on the device performance of n-typ...
The experimental results from 8 nm diameter silicon nanowire junctionless field effect transistors w...
Silicon nanowires have numerous potential applications, including transistors, memories, photovoltai...
Silicon nanowires have numerous potential applications, including transistors, memories, photovoltai...
Silicon nanowires have numerous potential applications, including transistors, memories, photovoltai...
In this paper, we have studied the impact of quantum confinement on the performance of n-type silico...
In this paper, we have studied the impact of quantum confinement on the performance of n-type silico...
This paper discusses the electronic transport properties of nanowire field-effect transistors (NW-FE...
In this work we investigate the impact of quantum mechanical effects on the device performance of n-...
III-V nanowire transistors are promising candidates for very high frequency electronics applications...