Title :
A Cooperative Game Framework for QoS Guided Job Allocation Schemes in Grids
Author :
Subrata, Riky ; Zomaya, Albert Y. ; Landfeldt, Bjorn
Author_Institution :
Sch. of Inf. Technol., Sydney Univ., Sydney, NSW
Abstract :
A grid differs from traditional high performance computing systems in the heterogeneity of the computing nodes as well as the communication links that connect the different nodes together. In grids there exist users and service providers. The service providers provide the service for jobs that the users generate. Typically the amount of jobs generated by all the users are more than any single provider can handle alone with any acceptable quality of service (QoS). As such, the service providers need to cooperate and allocate jobs among them so that each is providing an acceptable QoS to their customers. QoS is of particular concerns to service providers as it directly affects customers´ satisfaction and loyalty. In this paper, we propose a game theoretic solution to the QoS sensitive, grid job allocation problem. We model the QoS based, grid job allocation problem as a cooperative game and present the structure of the Nash Bargaining Solution. The proposed algorithm is fair to all users and represents a Pareto optimal solution to the QoS objective. One advantage of our scheme is the relatively low overhead and robust performance against inaccuracies in performance prediction information.
Keywords :
Pareto optimisation; customer satisfaction; game theory; grid computing; quality of service; resource allocation; Nash bargaining solution; Pareto optimal solution; QoS; communication links; cooperative game framework; customer satisfaction; grid job allocation problem; high performance computing systems; job allocation schemes; performance prediction information; service providers; Game theory; Grid computing; Heuristic algorithms; Job listing service; Load management; Partitioning algorithms; Quality of service; Resource management; Robustness; Runtime; Distributed architectures; Heterogeneous (hybrid) systems; Load balancing and task assignment; Scheduling and task partitioning;
Journal_Title :
Computers, IEEE Transactions on