DocumentCode :
934417
Title :
Resolution Limits in 130 nm and 90 nm CMOS Technologies for Analog Front-End Applications
Author :
Manghisoni, M. ; Ratti, L. ; Re, V. ; Speziali, V. ; Traversi, G.
Author_Institution :
Univ. di Bergamo, Dalmine
Volume :
54
Issue :
3
fYear :
2007
fDate :
6/1/2007 12:00:00 AM
Firstpage :
531
Lastpage :
537
Abstract :
In the last few years CMOS commercial technologies of the quarter micron node have been extensively used in the design of the readout electronics for highly granular detection systems in the particle physics environment. IC designers are now moving to 130 nm CMOS technologies, or even to the next technology generation, to implement readout integrated circuits for future HEP applications. In order to evaluate how scaling down of the device features affects their performances, continuous technology monitoring is mandatory. In this work the results of signal and noise measurements carried out on two CMOS commercial processes are presented. Data obtained from the measurements provide a powerful tool to establish design criteria in nanoscale CMOS processes for detector front-ends and can be used to evaluate the resolution limits achievable for low-noise charge sensitive amplifiers in the 100-nm minimum feature size range.
Keywords :
CMOS integrated circuits; nuclear electronics; particle detectors; readout electronics; CMOS commercial processes; CMOS technologies; analog front-end applications; continuous technology monitoring; detector front-ends; high energy physics detector; highly granular detection systems; integrated circuit design; low-noise charge sensitive amplifiers; noise measurement; particle physics environment; quarter micron node; readout electronics; readout integrated circuits; resolution limits; signal measurement; Application specific integrated circuits; CMOS integrated circuits; CMOS process; CMOS technology; Integrated circuit technology; Monitoring; Noise measurement; Performance evaluation; Readout electronics; Signal processing; 1/f noise; CMOS; channel thermal noise; deep submicron; front-end electronics; gate leakage current;
fLanguage :
English
Journal_Title :
Nuclear Science, IEEE Transactions on
Publisher :
ieee
ISSN :
0018-9499
Type :
jour
DOI :
10.1109/TNS.2007.896213
Filename :
4237421
Link To Document :
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