DocumentCode
1107330
Title
Predictive Simulation of Advanced Nano-CMOS Devices Based on kMC Process Simulation
Author
Mok, K.R.C. ; Colombeau, B. ; Benistant, F. ; Teo, R.S. ; Yeong, S.H. ; Yang, B. ; Jaraiz, M. ; Chu, Shao-Fu Sanford
Author_Institution
Chartered Semicond. Manuf. Ltd.
Volume
54
Issue
9
fYear
2007
Firstpage
2155
Lastpage
2163
Abstract
In this paper, accurate and advanced CMOS process and device simulations based on atomistic kinetic Monte Carlo (kMC) process simulator are presented. First, the methodology used to predict continuum 2-D/3-D doping profiles from 3-D atomistic distribution that can be directly transferred from process to device simulator is described. Calibration of damage evolution, dopant diffusion and clustering, interaction with interfaces, and the impact of impurities, which are crucial for accurate simulations, will be presented and discussed. Subsequently, comparison with a wide range of electrical-device characteristics showed that experimental results were remarkably well reproduced by the simulations. Finally, we shall demonstrate that device optimization can be achieved based on kMC process simulations, even for novel coimplant processes. This paves the way for the use of kMC in the design of devices and the optimization of device performance in technology computer-aided design for manufacturing.
Keywords
CMOS integrated circuits; Monte Carlo methods; doping profiles; nanoelectronics; advanced nanoCMOS device; atomistic kinetic Monte Carlo process simulator; clustering; continuum doping profiles; damage evolution calibration; dopant diffusion; kMC process simulator; CMOS process; Calibration; Computational modeling; Design optimization; Doping profiles; Impurities; Kinetic theory; Monte Carlo methods; Nanoscale devices; Predictive models; Advanced CMOS technology; atomistic simulations; nanodevices; physical modeling; technology computer aided design (TCAD);
fLanguage
English
Journal_Title
Electron Devices, IEEE Transactions on
Publisher
ieee
ISSN
0018-9383
Type
jour
DOI
10.1109/TED.2007.902698
Filename
4294226
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