DocumentCode
3113328
Title
A simulation study of CMOS performance improvement by laser annealed source/drain extension profiles
Author
Axelrad, Valery ; Al-Bayati, Amir ; Adibi, Babak ; Carey, Paul
Author_Institution
SEQUOIA Design Syst., Woodside, CA, USA
fYear
2000
fDate
2000
Firstpage
239
Lastpage
242
Abstract
Laser thermal processing (LTP) dramatically changes the feasibility of ultra shallow and highly doped source-drain extensions (SDE). In comparison to conventional rapid thermal processing (RTP) profiles, steeper profiles and higher peak concentrations are achieved. This is of particular importance for sub-100 nm devices, where limited steepness of RTP profiles can result in significant source-drain resistance (Rsd) and severe short-channel effects. In this work we demonstrate that LTP technologies can reduce the source/drain resistance Rsd by more than 70% for Lpoly below 100 nm in both NMOS and PMOS. This leads to increases in saturation currents by up to 10%. Significant improvements in very deep submicron MOSFET performance can thus be expected as a result of this new technology being deployed
Keywords
CMOS integrated circuits; MOSFET; ion implantation; laser beam annealing; CMOS performance; Lpoly; NMOS; PMOS; RTP profiles; laser annealed source/drain extension profiles; laser thermal processing; saturation currents; short-channel effects; simulation; source-drain resistance; sub-100 nm devices; very deep submicron MOSFET performance; CMOS process; CMOS technology; FETs; Implants; Laser transitions; MOS devices; Optical design; Rapid thermal processing; Simulated annealing; Thermal resistance;
fLanguage
English
Publisher
ieee
Conference_Titel
Ion Implantation Technology, 2000. Conference on
Conference_Location
Alpbach
Print_ISBN
0-7803-6462-7
Type
conf
DOI
10.1109/.2000.924134
Filename
924134
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