In this paper, a Monte-Carlo simulator, including quantum corrections to the potential and an improved physically based model for surface roughness scattering is used to study the electronic transport in double gate (DG) SO1 MOSFETs with Lc down to 14nm. Our results demonstrate that, for the explored LG values, scattering still controls the ON current (IDS), which for Lc = 25nm is overestimated by about a factor of 2 by a ballistic model. By monitoring the electrons back-scattered at the source, we discuss the role of the scattering in different parts of the device
The lattice scattering is carefully involved in a direct solution of the BTE and Poisson-Schrodinger...
A conventional Monte-Carlo simulator has been extended to include electrostatic and transport effect...
A conventional Monte-Carlo simulator has been extended to include electrostatic and transport effect...
In this paper, a Monte-Carlo simulator, including quantum corrections to the potential and an improv...
In this paper, a Monte-Carlo simulator, including quantum corrections to the potential and an improv...
In this paper, and in Part II, Monte Carlo (MC) simulations including quantum corrections to the pot...
In this paper, and in Part II, Monte Carlo (MC) simulations including quantum corrections to the pot...
In this paper, and in Part II, Monte Carlo (MC) simulations including quantum corrections to the pot...
In this paper, and in Part II, Monte Carlo (MC) simulations including quantum corrections to the pot...
In this paper, and in Part II, Monte Carlo (MC) simulations including quantum corrections to the pot...
In this paper, and in Part II, Monte Carlo (MC) simulations including quantum corrections to the pot...
Abstract—The scattering effects are studied in nanometer-scaled double-gate MOSFET using Monte Carlo...
Monte-Carlo simulations including quantum corrections to the potential are used to study electronic ...
Monte-Carlo simulations including quantum corrections to the potential are used to study electronic ...
Monte-Carlo simulations including quantum corrections to the potential are used to study electronic ...
The lattice scattering is carefully involved in a direct solution of the BTE and Poisson-Schrodinger...
A conventional Monte-Carlo simulator has been extended to include electrostatic and transport effect...
A conventional Monte-Carlo simulator has been extended to include electrostatic and transport effect...
In this paper, a Monte-Carlo simulator, including quantum corrections to the potential and an improv...
In this paper, a Monte-Carlo simulator, including quantum corrections to the potential and an improv...
In this paper, and in Part II, Monte Carlo (MC) simulations including quantum corrections to the pot...
In this paper, and in Part II, Monte Carlo (MC) simulations including quantum corrections to the pot...
In this paper, and in Part II, Monte Carlo (MC) simulations including quantum corrections to the pot...
In this paper, and in Part II, Monte Carlo (MC) simulations including quantum corrections to the pot...
In this paper, and in Part II, Monte Carlo (MC) simulations including quantum corrections to the pot...
In this paper, and in Part II, Monte Carlo (MC) simulations including quantum corrections to the pot...
Abstract—The scattering effects are studied in nanometer-scaled double-gate MOSFET using Monte Carlo...
Monte-Carlo simulations including quantum corrections to the potential are used to study electronic ...
Monte-Carlo simulations including quantum corrections to the potential are used to study electronic ...
Monte-Carlo simulations including quantum corrections to the potential are used to study electronic ...
The lattice scattering is carefully involved in a direct solution of the BTE and Poisson-Schrodinger...
A conventional Monte-Carlo simulator has been extended to include electrostatic and transport effect...
A conventional Monte-Carlo simulator has been extended to include electrostatic and transport effect...