DocumentCode :
3387886
Title :
Resistive Bridge fault model evolution from conventional to ultra deep submicron
Author :
Polian, Ilia ; Engelke, Piet ; Becker, Bernd ; Kundu, Sandip ; Galliere, Jean-Marc ; Renovell, Michel
Author_Institution :
Albert Ludwigs Univ., Freiburg, Germany
fYear :
2005
fDate :
1-5 May 2005
Firstpage :
343
Lastpage :
348
Abstract :
We present three resistive bridging fault models valid for different CMOS technologies. The models are partitioned into a general framework (which is shared by all three models) and a technology-specific part. The first model is based on Shockley equations and is valid for conventional but not deep submicron CMOS. The second model is obtained by fitting SPICE data. The third resistive bridging fault model uses Berkeley predictive technology model and BSIM4; it is valid for CMOS technologies with feature sizes of 90nm and below, accurately describing non-trivial electrical behavior in that technologies. Experimental results for ISCAS circuits show that the test patterns obtained for the Shockley model are still valid for the fitted model, but lead to coverage loss under the predictive model.
Keywords :
CMOS integrated circuits; SPICE; fault diagnosis; integrated circuit modelling; integrated circuit testing; nanotechnology; BSIM4; Berkeley predictive technology model; CMOS technologies; ISCAS circuits; SPICE; Shockley equations; fitted model; non-trivial electrical behavior; resistive bridge fault model; test patterns; ultra deep submicron technologies; Bridge circuits; CMOS technology; Circuit faults; Circuit testing; Electrical fault detection; Fault detection; Predictive models; SPICE; Semiconductor device modeling; Voltage; Deep submicron technology modeling; Resistive bridging faults;
fLanguage :
English
Publisher :
ieee
Conference_Titel :
VLSI Test Symposium, 2005. Proceedings. 23rd IEEE
ISSN :
1093-0167
Print_ISBN :
0-7695-2314-5
Type :
conf
DOI :
10.1109/VTS.2005.72
Filename :
1443447
Link To Document :
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