DocumentCode :
3248566
Title :
Batch job scheduling for Reducing Water footprints in data center
Author :
Shaolei Ren
Author_Institution :
Florida Int. Univ., Miami, FL, USA
fYear :
2013
fDate :
2-4 Oct. 2013
Firstpage :
747
Lastpage :
754
Abstract :
The number and scale of data centers explode with the dramatically surging demand for cloud computing services, raising serious sustainability concerns. While reducing energy consumption is undoubtedly essential for sustainability, the enormity of water consumption (both directly by cooling systems and indirectly by electricity generation) has been long-neglected despite its emergence as a critical consideration in light of the growing conflicts between water supply and demand. In this paper, we take the first step towards the data center water sustainability. Specifically, we exploit the temporal diversity of data center water efficiency and propose an online algorithm, called BREW (Batch job scheduling for REducing Water footprint), which dynamically schedules batch jobs to minimize the water-power cost (quantified in terms of a weighted sum of water consumption and electricity cost) while bounding the maximum job queue backlog. It is formally proved that BREW achieves a close-to-minimum water-power cost compared to the optimal offline algorithm with future information. We also perform a trace-based simulation study and the result validates our analysis: compared to the state-of-the-art solution that solely minimize the electricity cost, BREW can significantly reduce the water-power cost while incurring a negligible delay increase (e.g., over 24% water-power cost saving but only 30 minute delay increase).
Keywords :
computer centres; energy consumption; sustainable development; water conservation; water supply; BREW; batch job scheduling for reducing water footprint; close-to-minimum water-power cost; cloud computing services; cooling systems; data center water efficiency; data center water sustainability; electricity cost; electricity generation; energy consumption reduction; maximum job queue backlog; online algorithm; optimal offline algorithm; trace-based simulation study; water consumption; water demand; water supply; water-power cost minimization; Carbon; Delays;
fLanguage :
English
Publisher :
ieee
Conference_Titel :
Communication, Control, and Computing (Allerton), 2013 51st Annual Allerton Conference on
Conference_Location :
Monticello, IL
Print_ISBN :
978-1-4799-3409-6
Type :
conf
DOI :
10.1109/Allerton.2013.6736599
Filename :
6736599
Link To Document :
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