The total estimated energy bill for data centers in 2010 was \11.5 billion, and experts estimate that the energy cost of a typical data center doubles every five years. On the other hand, storage advancements have started to lag behind computational developments , therein becoming a  bottleneck for the ongoing data growth which already approaches Exascale levels. We investigate the relationship among data throughput and energy footprint on a large storage cluster, with the goal of formalizing it as a metric that reflects the trading among consistency and energy. Employing a client-centric consistency approach, and while honouring ACID properties of the chosen columnar store for the case study (Apache HBase), we present the factors involved in the energy consumption of the system as well as lessons learned to underpin further design of energy-efficient cluster scale storage systems.
The total estimated energy bill for data centers in 2010 was \11.5 billion, and experts estimate that the energy cost of a typical data center doubles every five years. On the other hand, computational developments have started to lag behind storage advancements , therein becoming a future bottleneck for the ongoing data growth which already approaches Exascale levels. We investigate the relationship among data throughput and energy footprint on a large storage cluster, with the goal of formalizing it as a metric that reflects the trading among consistency and energy. Employing a client-centric consistency approach, and while honouring ACID properties of the chosen columnar store for the case study (Apache HBase), we present the factors involved in the energy consumption of the system as well as lessons learned to underpin further design of energy-efficient cluster scale storage systems.
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storage advancements
computational developments
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computational developments
storage advancements
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future