DocumentCode
3249598
Title
Atomic scale simulation of extended defects: Monte Carlo approach
Author
Lee, Jae-hee ; Kim, Hyun-cheol ; Lee, Hee-Gook ; Won, Taeyoung
Author_Institution
R&D Div., LG Semicon, Hungduk, South Korea
fYear
1999
fDate
1999
Firstpage
51
Lastpage
54
Abstract
This paper reports Monte Carlo calculations of the bimolecular reaction of extended defects, which explicitly takes into account the time evolution of the size density of extended defects in an effort to cover a broad range of behavior. Our Monte Carlo calculation is in quantitative agreement with experimental deactivation data and successfully reproduces the rapid deactivation at the initial phase followed by slow deactivation thereafter, During the annealing step, the density of the dislocation loops decreases while their size increases. Furthermore, the dislocation loops suppress the injection of silicon interstitials, thereby retarding the enhancement of the marker layers at the start of annealing
Keywords
Monte Carlo methods; annealing; dislocation loops; elemental semiconductors; extended defects; interstitials; ion implantation; precipitation; semiconductor process modelling; silicon; Monte Carlo calculation; Si; annealing step; atomic scale simulation; bimolecular reaction; deactivation data; defect size density; dislocation loop density; dopant precipitation; extended defects; interstitials; ion implantation; marker layers; time evolution; Annealing; Boron; Computational modeling; Computer simulation; Equations; Kinetic theory; Monte Carlo methods; Research and development; Semiconductor process modeling; Silicon;
fLanguage
English
Publisher
ieee
Conference_Titel
Simulation of Semiconductor Processes and Devices, 1999. SISPAD '99. 1999 International Conference on
Conference_Location
Kyoto
Print_ISBN
4-930813-98-0
Type
conf
DOI
10.1109/SISPAD.1999.799257
Filename
799257
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