• DocumentCode
    2119687
  • Title

    A Resource Evaluation Model Based on Entropy Optimization Toward Green Cloud

  • Author

    Liyun Zuo ; Lei Shu ; Chunsheng Zhu ; Zhangbing Zhou

  • Author_Institution
    Guangdong Petrochem. Equip. Fault Diagnosis Key Lab., Guangdong Univ. of Petrochem. Technol., Maoming, China
  • fYear
    2013
  • fDate
    3-4 Oct. 2013
  • Firstpage
    74
  • Lastpage
    81
  • Abstract
    The uncertainty of cloud resources makes task scheduling very difficult, and may results in a waste of energy of cloud resources if some cloud resources stay in unusable state for a long time. This paper proposes the cloud resource evaluation model based on entropy optimization (EOEM) to solve the uncertain problem. The evaluation results also can be used to develop resource management strategies, which will be sufficient for saving energy. Particularly, the proposed model may release long-term unavailable resources to reduce energy consumption. With the entropy increasing minimum principle, the proposed model takes the objective function of resource providers and user as constraints of maximum entropy function, thus it can balance profits of both cloud resource providers and cloud users. Meanwhile, the system utilization can be maximized and the resources satisfying QoS can be screened. For demonstrating their performance we evaluate the proposed model by simulation experiment. Simulation results reveal the positive effect of the entropy optimization to satisfaction degree of users and completion time of task. The model also shows better adaptability when cloud resources join or quit the cloud.
  • Keywords
    cloud computing; entropy; green computing; quality of service; resource allocation; scheduling; EOEM; QoS; cloud resource evaluation model; cloud resources; energy consumption; entropy increasing minimum principle; entropy optimization; green cloud; maximum entropy function; task scheduling; uncertain problem; Availability; Cloud computing; Computational modeling; Dynamic scheduling; Energy consumption; Entropy; Optimization; Entropy; Green Cloud; energy; resource evaluation;
  • fLanguage
    English
  • Publisher
    ieee
  • Conference_Titel
    Semantics, Knowledge and Grids (SKG), 2013 Ninth International Conference on
  • Conference_Location
    Beijing
  • Type

    conf

  • DOI
    10.1109/SKG.2013.30
  • Filename
    6816587