The compatibility of atomistic simulations with continuum methods is tested by applying empirical molecular dynamics to the diffusion of a boron dopant atom in silicon. Extended timescale simulations of the diffusion path are performed. The analysis of the position of boron during the migration events reveals a preference for a kick-out mechanism. The deduced migration length is in excellent agreement with the classical value, a promising conclusion encouraging the transition to all-atomistic process simulations. The diffusion coefficient of boron is analyzed in light of an accelerated diffusion in the presence of a silicon self-interstitial oversaturation
The continuous scaling of electron devices places strong demands on device design and simulation. Th...
A new model is developed for boron diffusion in silicon oxides and oxynitrides in which boron diffus...
A model for simulating the rapid thermal annealing of silicon structures implanted with boron and ca...
By means of density-functional based tight-binding molecular-dynamics (DF-TBMD) simulations, we inve...
We presents results from a predictive atomic level simulation of Boron diffusion in Silicon under a ...
An exhaustive first-principles study of the energetics of B-Si interstitial complexes of various con...
A two stream model of boron diffusion in silicon has been developed. The model is intended for simul...
We have applied a density-functional derived tight-binding method (DF-TBMD) to the study of the ener...
The diffusion of B atoms in crystalline and amorphous Si has been experimentally investigated and mo...
Boron, as the main p-type dopant in Si, has been extensively investigated both experimentally and th...
We review our recent work on an atomistic approach to the development of predictive process simulati...
In this contribution we present a model for transient enhanced diffusion of boron in silicon. This m...
Boron diffusion is investigated in details by monitoring B-sharp concentration profiles embedded in ...
The complete set of the four macroscopic transport coefficients describing the coupled diffusion of ...
A quantitative description of the transient diffusion and activation of boron during post-implantati...
The continuous scaling of electron devices places strong demands on device design and simulation. Th...
A new model is developed for boron diffusion in silicon oxides and oxynitrides in which boron diffus...
A model for simulating the rapid thermal annealing of silicon structures implanted with boron and ca...
By means of density-functional based tight-binding molecular-dynamics (DF-TBMD) simulations, we inve...
We presents results from a predictive atomic level simulation of Boron diffusion in Silicon under a ...
An exhaustive first-principles study of the energetics of B-Si interstitial complexes of various con...
A two stream model of boron diffusion in silicon has been developed. The model is intended for simul...
We have applied a density-functional derived tight-binding method (DF-TBMD) to the study of the ener...
The diffusion of B atoms in crystalline and amorphous Si has been experimentally investigated and mo...
Boron, as the main p-type dopant in Si, has been extensively investigated both experimentally and th...
We review our recent work on an atomistic approach to the development of predictive process simulati...
In this contribution we present a model for transient enhanced diffusion of boron in silicon. This m...
Boron diffusion is investigated in details by monitoring B-sharp concentration profiles embedded in ...
The complete set of the four macroscopic transport coefficients describing the coupled diffusion of ...
A quantitative description of the transient diffusion and activation of boron during post-implantati...
The continuous scaling of electron devices places strong demands on device design and simulation. Th...
A new model is developed for boron diffusion in silicon oxides and oxynitrides in which boron diffus...
A model for simulating the rapid thermal annealing of silicon structures implanted with boron and ca...