DocumentCode
1362380
Title
Fully Automated, Testable Design of Fine-Grained Triple Mode Redundant Logic
Author
Hindman, Nathan D. ; Clark, Lawrence T. ; Patterson, Dan W. ; Holbert, Keith E.
Author_Institution
Sch. of Electr., Comput. & Energy Eng., Arizona State Univ., Tempe, AZ, USA
Volume
58
Issue
6
fYear
2011
Firstpage
3046
Lastpage
3052
Abstract
A fully automated logic design methodology for radiation hardened by design high-speed logic using fine-grained triple modular redundancy (TMR) is presented. The methodology and circuits leverage commercial logic design automation tools. The circuit approach is validated for hardness using both heavy ion and proton broad beam testing. The base TMR self-correcting master-slave flip-flop is described, including testability features that disable the self-correction. The flow allows hardening of any synthesizable logic at clock frequencies comparable to unhardened designs and supports standard low-power techniques, e.g., clock gating and supply voltage scaling.
Keywords
clocks; flip-flops; high-speed integrated circuits; integrated circuit testing; logic design; low-power electronics; radiation hardening (electronics); redundancy; automation tools; circuits leverage; clock frequencies; clock gating; fine-grained triple mode redundant logic; fine-grained triple modular redundancy; fully automated logic design; heavy ion; high-speed logic; low-power techniques; master-slave flip-flop; proton broad beam testing; radiation hardened; self-correction; supply voltage scaling; synthesizable logic; testable design; Circuit synthesis; Delay; Latches; Logic gates; Radiation hardening; Redundancy; Sequential circuits; Auto-place and route; logic synthesis; radiation hardening by design; standard cell library;
fLanguage
English
Journal_Title
Nuclear Science, IEEE Transactions on
Publisher
ieee
ISSN
0018-9499
Type
jour
DOI
10.1109/TNS.2011.2169280
Filename
6061925
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