Towards Energy Efficient Orchestration of Cloud Computing Infrastructure
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The emerging of new Cloud services and applications demanding for ever more performance (i.e., on one hand, the rapid growth of applications using deep learning –DL, on the other hand, HPC-oriented work-flows executed in Cloud) is continuously putting pressure on Cloud providers to increase capabilities of their large data centers, by embracing more advanced and heterogeneous devices [2, 3, 11]. Hardware heterogeneity also helps Cloud providers to improve energy efficiency of their infrastructures by using architectures dedicated to specific workloads. However, heterogeneity represents a challenge from the infrastructure management perspective. In this highly dynamic context, workload orchestration requires advanced algorithms to not defeat the efficiency provided by the hardware layer. Despite past works partially addressed the problem, a comprehensive solution is still missing.
This paper presents the solution studied within the European H2020 project OPERA . Our approach is intended for managing the workload in large infrastructures running heterogeneous systems, by using a two-steps approach. Whenever new jobs are submitted, an energy-aware allocation policy is used to select the most efficient nodes where to execute the incoming jobs. In a second step, the whole workload is consolidated by means of the optimization of a cost model. This paper focuses on an allocation algorithm aimed at reducing the overall energy consumption; it also presents the results of simulations on a State-of-the-Art framework. When compared with well-known and broadly adopted allocation strategies, the proposed approach results in a tangible energy-saving (up to 30% compared to First Fit allocation policy, and up to 45.2% compared to the Best Fit), thus demonstrating energy efficiency superiority.
KeywordsOPERA Project Allocation Policy Cloud Providers Millions Of Instructions Per Second (MIPS) Resource Orchestration (RO)
This work is supported by the OPERA project, which has received funding from the European Union’s Horizon 2020 Research and Innovation Programme under the grant agreement No. 688386.
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