This letter presents a numerical investigation of the statistical distribution of the random telegraph noise (RTN) amplitude in nanoscale MOS devices, focusing on the change of its main features when moving from the subthreshold to the on-state conduction regime. Results show that while the distribution can be well approximated by an exponential behavior in subthreshold, large deviations from this behavior appear when moving toward the on-state regime, despite a low probability exponential tail at high RTN amplitudes being preserved. The average value of the distribution is shown to keep an inverse proportionality to channel area, while the slope of the high-amplitude exponential tail changes its dependence on device width, length, and dopi...
As devices scaling down into nanometer region, the random telegraph noise (RTN) has become a signifi...
In this paper, we discuss some of the measurement and analysis techniques for Random Telegraph Noise...
In this paper, the widely adopted “hole in the inversion layer” (HIL) model for predicting the ampli...
This letter presents a numerical investigation of the statistical distribution of the random telegra...
This letter presents a numerical investigation of the statistical distribution of the random telegra...
In this paper, the amplitude (Delta I-d/I-d) distribution of random telegraph noise (RTN) induced by...
This paper presents a numerical investigation of the random telegraph noise amplitude in nanoscale M...
This work investigates the performance of the statistical impedance field method in the analysis of ...
Random telegraph noise (RTN) has been long debated in many theoretical and experimental studies. Its...
This paper presents a thorough statistical investigation of random telegraph noise (RTN) and bias te...
This paper gives an outline of our recent findings on the random telegraph noise (RTN) in nanoscale ...
In this paper, an improved "hole in the inversion layer" (HIL) model for amplitude of rand...
ÐFor the relative amplitude of the random telegraph signal noise (RTS) in a MOS transistor DG/G=DI/I...
As devices scaling down into nanometer region, the random telegraph noise (RTN) has become a signifi...
In this paper, we discuss some of the measurement and analysis techniques for Random Telegraph Noise...
In this paper, the widely adopted “hole in the inversion layer” (HIL) model for predicting the ampli...
This letter presents a numerical investigation of the statistical distribution of the random telegra...
This letter presents a numerical investigation of the statistical distribution of the random telegra...
In this paper, the amplitude (Delta I-d/I-d) distribution of random telegraph noise (RTN) induced by...
This paper presents a numerical investigation of the random telegraph noise amplitude in nanoscale M...
This work investigates the performance of the statistical impedance field method in the analysis of ...
Random telegraph noise (RTN) has been long debated in many theoretical and experimental studies. Its...
This paper presents a thorough statistical investigation of random telegraph noise (RTN) and bias te...
This paper gives an outline of our recent findings on the random telegraph noise (RTN) in nanoscale ...
In this paper, an improved "hole in the inversion layer" (HIL) model for amplitude of rand...
ÐFor the relative amplitude of the random telegraph signal noise (RTS) in a MOS transistor DG/G=DI/I...
As devices scaling down into nanometer region, the random telegraph noise (RTN) has become a signifi...
In this paper, we discuss some of the measurement and analysis techniques for Random Telegraph Noise...
In this paper, the widely adopted “hole in the inversion layer” (HIL) model for predicting the ampli...