The Local Iterative Monte Carlo technique (LIMO) is used for an effective simulation of hot electron distributions in silicon MOSFETs. This new Monte Carlo approach yields an efficient use of the computational resources due to a different iteration scheme. In addition the necessary computation time can be further reduced by a reuse of the computational expensive MC step simulation results in the iteration process. The later possibility is investigated in detail in this work. Results for short channel MOSFETs demonstrates that correct two-dimensional hot electron distributions can be calculated by LIMO within I hour on a standard work station
The Monte Carlo method is a very general mathematical tool for the solution of a large variety of pr...
The Monte Carlo method is a very general mathematical tool for the solution of a large variety of pr...
Abstract-A coupled two-dimensional drift-diffision and Many theoretical and experimental techniques ...
The Local Iterative Monte Carlo technique (LIMO) is used for an effective simulation of hot electron...
The effects of electron-electron interaction on the electron distribution in n-channel metal-oxide-s...
In typical particle simulations applied to device problems, it is desirable to simulate regions havi...
The effects of electron–electron interaction on the electron distribution in n-channel metal-oxide-s...
The effects of electron-electron interaction on the electron distribution, substrate current, and ga...
A full-band Monte Carlo device simulator has been used to study the effects of device scaling on hot...
A full-band Monte Carlo device simulator has been used to study the effects of device scaling on hot...
A Monte Carlo simulator for silicon devices has been developed. The band structure data for this sel...
In this thesis, the transport of electrons in silicon devices is studied numerically by solving the ...
In this thesis, the transport of electrons in silicon devices is studied numerically by solving the ...
Monte Carlo (MC) device simulations of high energy electrons and holes in Si-n-MOSFET's are presente...
Monte Carlo (MC) device simulations of high energy electrons and holes in Si-n-MOSFET's are presente...
The Monte Carlo method is a very general mathematical tool for the solution of a large variety of pr...
The Monte Carlo method is a very general mathematical tool for the solution of a large variety of pr...
Abstract-A coupled two-dimensional drift-diffision and Many theoretical and experimental techniques ...
The Local Iterative Monte Carlo technique (LIMO) is used for an effective simulation of hot electron...
The effects of electron-electron interaction on the electron distribution in n-channel metal-oxide-s...
In typical particle simulations applied to device problems, it is desirable to simulate regions havi...
The effects of electron–electron interaction on the electron distribution in n-channel metal-oxide-s...
The effects of electron-electron interaction on the electron distribution, substrate current, and ga...
A full-band Monte Carlo device simulator has been used to study the effects of device scaling on hot...
A full-band Monte Carlo device simulator has been used to study the effects of device scaling on hot...
A Monte Carlo simulator for silicon devices has been developed. The band structure data for this sel...
In this thesis, the transport of electrons in silicon devices is studied numerically by solving the ...
In this thesis, the transport of electrons in silicon devices is studied numerically by solving the ...
Monte Carlo (MC) device simulations of high energy electrons and holes in Si-n-MOSFET's are presente...
Monte Carlo (MC) device simulations of high energy electrons and holes in Si-n-MOSFET's are presente...
The Monte Carlo method is a very general mathematical tool for the solution of a large variety of pr...
The Monte Carlo method is a very general mathematical tool for the solution of a large variety of pr...
Abstract-A coupled two-dimensional drift-diffision and Many theoretical and experimental techniques ...