Title
Statistical Leakage Minimization Of Digital Circuits Using Gate Sizing, Gate Length Biasing, And Threshold Voltage Selection
Abstract
This paper dagger proposes a novel methodology for statistical leakage minimization of digital circuits. A function of mean and variance of the circuit leakage is minimized with constraint on alpha-percentile of the path delays using physical delay models fitted to a 90-nm industrial technology. Since the leakage is a strong function of the threshold voltage and gate length, considering them as design variables can provide significant amount of power savings. The formulated leakage minimization problem is shown to be a multivariable convex optimization problem under specific variable transformations. We demonstrate that our statistical optimization can lead to more than 50% reduction in the 90-percentile leakage for a 6% increase in the required time constraint.
Year
DOI
Venue
2006
10.1166/jolpe.2006.065
JOURNAL OF LOW POWER ELECTRONICS
Keywords
Field
DocType
Leakage Minimization, Statistical Optimization, Gate Sizing, Convex Optimization, Probability, Gate Length Biasing
Digital electronics,Leakage (electronics),Overdrive voltage,NAND gate,Electronic engineering,Minification,Engineering,Gate equivalent,Threshold voltage,Electrical engineering,Biasing
Journal
Volume
Issue
ISSN
2
2
1546-1998
Citations 
PageRank 
References 
0
0.34
0
Authors
3
Name
Order
Citations
PageRank
Sarvesh Bhardwaj100.68
Yu Cao232929.78
Sarma Vrudhula32380180.63