DocumentCode :
883440
Title :
Predictive worst case statistical modeling of 0.8-μm BICMOS bipolar transistors: a methodology based on process and mixed device/circuit level simulators
Author :
Kizilyalli, Isik C. ; Ham, Thomas E. ; Singhal, Kumud ; Kearney, Joseph W. ; Lin, Wen ; Thoma, Morgan J.
Author_Institution :
AT&T Bell Lab., Allentown, PA, USA
Volume :
40
Issue :
5
fYear :
1993
fDate :
5/1/1993 12:00:00 AM
Firstpage :
966
Lastpage :
973
Abstract :
The authors discuss the use of mixed-level physics-based device/circuit simulation software and semiconductor process simulator in the construction of predictive worst case process conditions for bipolar transistors currently being manufactured in AT&T 0.8-μm BICMOS technology. Process fluctuations are introduced into the process simulator using the Latin hypercube (Monte Carlo) sampling method. The method is different from those in previous similar studies in that the compact device model parameter extraction step for each sample process is bypassed and active devices in the circuit are described by the physical device simulator rather than a compact model representation. This eliminates deficiencies associated with compact semiconductor device models. Furthermore, inaccuracies and difficulties introduced by compact model parameter extractions (especially for bipolar transistors) are also eliminated. The method is very useful in identifying critical process steps which determine the electrical performance of the devices and circuits
Keywords :
BiCMOS integrated circuits; Monte Carlo methods; bipolar transistors; semiconductor device models; semiconductor process modelling; 0.8 micron; BICMOS bipolar transistors; Latin hypercube; Monte Carlo sampling method; critical process steps; electrical performance; maximum gain; mixed device/circuit level simulators; predictive worst case statistical model; process fluctuations; propagation delay; semiconductor process simulator; BiCMOS integrated circuits; Bipolar transistors; Circuit simulation; Fluctuations; Manufacturing processes; Parameter extraction; Predictive models; Semiconductor device manufacture; Semiconductor process modeling; Virtual manufacturing;
fLanguage :
English
Journal_Title :
Electron Devices, IEEE Transactions on
Publisher :
ieee
ISSN :
0018-9383
Type :
jour
DOI :
10.1109/16.210206
Filename :
210206
Link To Document :
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