We present an atomistic approach to the development of predictive process simulation tools. First principles methods are used to construct a database of defect and dopant energetics. This is used as input for kinetic Monte Carlo simulations of ion implantation and dopant diffusion under a wide variety of technologically relevant conditions. Our simulations are in excellent agreement with annealing experiments on 20-80 keV B implants into Si, and with those on 50 keV Si implants into complex B-doped structures. Our calculations produce novel predictions of the time evolution of the electrically active B fraction during annealing
Physical and mathematical models as well as numerical algorithms for simulation of advanced technolo...
Producción CientíficaWe review atomistic modeling approaches for issues related to ion implantation ...
We presents results from a predictive atomic level simulation of Boron diffusion in Silicon under a ...
We review our recent work on an atomistic approach to the development of predictive process simulati...
We review the development and application of kinetic Monte Carlo simulations to investigate defect a...
[[abstract]]Ion implantation is the key processing step in the production of integrated circuits. Ho...
Classical molecular dynamics simulations are used to study damage produced during implantation of se...
Atomistic modeling has been applied in studying and simulating the advanced junction technologies. W...
Producción CientíficaIon implantation is a very well established technique to introduce dopants in s...
Defects evolution in silicon during annealing after low energy Si+ implantation is simulated by atom...
We have developed an atomistic model for dopant diffusion in SiGe structures and we have implemented...
The Semiconductor Industry Association (SIA) projects that the semiconductor chips used in personal ...
We present results of multiple-time-scale simulations of 5, 10 and 15 keV low temperature ion implan...
A model is presented to account for the effects of ion-induced defects during implantation processin...
Ion implantation in silicon offers a variety of technological advantages like excellent uniformity a...
Physical and mathematical models as well as numerical algorithms for simulation of advanced technolo...
Producción CientíficaWe review atomistic modeling approaches for issues related to ion implantation ...
We presents results from a predictive atomic level simulation of Boron diffusion in Silicon under a ...
We review our recent work on an atomistic approach to the development of predictive process simulati...
We review the development and application of kinetic Monte Carlo simulations to investigate defect a...
[[abstract]]Ion implantation is the key processing step in the production of integrated circuits. Ho...
Classical molecular dynamics simulations are used to study damage produced during implantation of se...
Atomistic modeling has been applied in studying and simulating the advanced junction technologies. W...
Producción CientíficaIon implantation is a very well established technique to introduce dopants in s...
Defects evolution in silicon during annealing after low energy Si+ implantation is simulated by atom...
We have developed an atomistic model for dopant diffusion in SiGe structures and we have implemented...
The Semiconductor Industry Association (SIA) projects that the semiconductor chips used in personal ...
We present results of multiple-time-scale simulations of 5, 10 and 15 keV low temperature ion implan...
A model is presented to account for the effects of ion-induced defects during implantation processin...
Ion implantation in silicon offers a variety of technological advantages like excellent uniformity a...
Physical and mathematical models as well as numerical algorithms for simulation of advanced technolo...
Producción CientíficaWe review atomistic modeling approaches for issues related to ion implantation ...
We presents results from a predictive atomic level simulation of Boron diffusion in Silicon under a ...