DocumentCode :
48836
Title :
Predictive Simulation and Benchmarking of Si and Ge pMOS FinFETs for Future CMOS Technology
Author :
Shifren, L. ; Aitken, Robert ; Brown, A.R. ; Chandra, Vishal ; Binjie Cheng ; Riddet, C. ; Alexander, Craig L. ; Cline, Brian ; Millar, C. ; Sinha, S. ; Yeric, Greg ; Asenov, Asen
Author_Institution :
ARM Inc., San Jose, CA, USA
Volume :
61
Issue :
7
fYear :
2014
fDate :
Jul-14
Firstpage :
2271
Lastpage :
2277
Abstract :
In this paper, we study and compare Si versus Ge pMOS FinFETs at advanced node dimensions using ensemble Monte Carlo simulations. It is found that due to large external resistance, lack of stressing methods, smaller bandgap, larger dielectric constant, and increased variability that in the absence of major innovation, Ge is not an ideal candidate for channel replacement material of pMOS in future CMOS technology generation FinFETs. In order for Ge to compete with Si, it would at a minimum require a stressing mechanism and improved contact resistance, but leakage and variability would still be a concern for low-power applications.
Keywords :
CMOS integrated circuits; MOSFET; Monte Carlo methods; elemental semiconductors; germanium; low-power electronics; silicon; Ge; Ge pMOS FinFET; Si; Si pMOS FinFET; advanced node dimensions; bandgap; channel replacement material; contact resistance; dielectric constant; ensemble Monte Carlo simulations; external resistance; future CMOS technology generation FinFET; leakage; low-power applications; stressing mechanism; stressing methods; variability; Contact resistance; Electromagnetic compatibility; FinFETs; Resistance; Silicon; Stress; Substrates; 10-nm node; 7-nm node; CMOS; CMOS variability; FinFET; MOSFET; SiGe; SiGe.; advanced node process; device physics; germanium; process technology;
fLanguage :
English
Journal_Title :
Electron Devices, IEEE Transactions on
Publisher :
ieee
ISSN :
0018-9383
Type :
jour
DOI :
10.1109/TED.2014.2323018
Filename :
6832528
Link To Document :
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