DocumentCode
3372388
Title
SoC power analysis framework and its application to power-thermal co-simulation
Author
Fang, Shan-Chien ; Weng, Chia-Chien ; Tseng, Chun-Kai ; Hsu, Chen-Wei ; Liao, Jia-Lu ; Huang, Shi-Yu ; Lung, Chiao-Ling ; Kwai, Ding-Ming
Author_Institution
TinnoTek Inc., Hsinchu, Taiwan
fYear
2011
fDate
25-28 April 2011
Firstpage
1
Lastpage
4
Abstract
In this paper, we introduce a systematic power analysis framework for SoC designs using bottom-up power modeling integrated with top-down power estimation. Four power analysis tools have been realized: (1) PowerBrick, a power characterization tool to construct power libraries for standard cell library and memory compiler, (2) PowerMixer, an RTL/gate-level power estimator for large logic design, (3) PowerMixerIP, an IP-based power model builder to build power models for general IPs as well as processor IPs, and (4) PowerDepot, an ESL power estimation tool to enable super-fast system-level SoC power estimation. Equipped with these highly automatic tools, one is able to drastically reduce the effort and time spent in building the power analysis environment for SoC designs. The simulation speedup can be up to 2,400X comparing with traditional simulation methodology, while retaining very high accuracy. We also introduce its application to a power-thermal co-simulation process, by which one can predict more accurately the steady-state temperature of an IC in full operation.
Keywords
integrated circuit design; logic design; low-power electronics; memory architecture; power supply circuits; system-on-chip; ESL power estimation tool; IP-based power model builder; PowerBrick; PowerDepot; PowerMixerIP; RTL; SoC designs; SoC power analysis framework; bottom-up power modeling; gate-level power estimator; general IP; logic design; memory compiler; power analysis environment; power analysis tools; power characterization tool; power library; power models; power-thermal co-simulation process; processor IP; simulation methodology; simulation speedup; standard cell library; steady-state temperature; super-fast system-level SoC power estimation; systematic power analysis framework; top-down power estimation; Analytical models; Estimation; IP networks; Libraries; Load modeling; Logic gates; System-on-a-chip;
fLanguage
English
Publisher
ieee
Conference_Titel
VLSI Design, Automation and Test (VLSI-DAT), 2011 International Symposium on
Conference_Location
Hsinchu
ISSN
Pending
Print_ISBN
978-1-4244-8500-0
Type
conf
DOI
10.1109/VDAT.2011.5783595
Filename
5783595
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