DocumentCode
2595181
Title
Variation-Aware TED-Based Approach for Nano-CMOS RTL Leakage Optimization
Author
Banerjee, S. ; Mathew, J. ; Pradhan, D.K. ; Mohanty, S.P. ; Ciesielski, M.
Author_Institution
Univ. of Bristol, Bristol, UK
fYear
2011
fDate
2-7 Jan. 2011
Firstpage
304
Lastpage
309
Abstract
As technology scales down to nanometer regime the process variations have profound effect on circuit characteristics. Meeting timing and power constraints under such process variations in nano-CMOS circuit design is increasingly difficult. This causes a shifting from worst-case based analysis and optimization to statistical or probability based analysis and optimization at every level of circuit abstraction. This paper presents a TED (Taylor Expansion Diagram) based -multi-Tox techniques during high-level synthesis (HLS). A variation-aware simultaneous scheduling and resource binding algorithm is proposed which maximizes the power yield under timing yield and performance constraint. For this purpose, a-multi-Tox library is characterized under process variation. The delay and power distribution of different functional units are exhaustively studied. The proposed variation-aware algorithm uses those components for generating low power RTL under a given timing yield and performance constraint. The experimental results show significant improvement as high as 95% on leakage power yield under given constraints.
Keywords
CMOS integrated circuits; high level synthesis; statistical analysis; Taylor expansion diagram; high-level synthesis; nano-CMOS RTL leakage optimization; nano-CMOS circuit design; probability analysis; resource binding algorithm; statistical analysis; variation-aware TED-based approach; variation-aware simultaneous scheduling; Adders; Delay; Libraries; Logic gates; Optimization; Scheduling;
fLanguage
English
Publisher
ieee
Conference_Titel
VLSI Design (VLSI Design), 2011 24th International Conference on
Conference_Location
Chennai
ISSN
1063-9667
Print_ISBN
978-1-61284-327-8
Electronic_ISBN
1063-9667
Type
conf
DOI
10.1109/VLSID.2011.40
Filename
5718819
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