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Fuzzy Logic-Based Secure and Fault Tolerant Job Scheduling in Grid

Fuzzy Logic-Based Secure and Fault Tolerant Job Scheduling in Grid
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摘要 The uncertainties of grid sites security are main hurdle to make the job scheduling secure, reliable and fault-tolerant. Most existing scheduling algorithms use fixed-number job replications to provide fault tolerant ability and high scheduling success rate, which consume excessive resources or can not provide sufficient fault tolerant functions when grid security conditions change. In this paper a fuzzy-logic-based self-adaptive replication scheduling (FSARS) algorithm is proposed to handle the fuzziness or uncertainties of job replication number which is highly related to trust factors behind grid sites and user jobs. Remote sensing-based soil moisture extraction (RSBSME) workload experiments in real grid environment are performed to evaluate the proposed approach and the results show that high scheduling success rate of up to 95% and less grid resource utilization can be achieved through FSARS. Extensive experiments show that FSARS scales well when user jobs and grid sites increase. The uncertainties of grid sites security are main hurdle to make the job scheduling secure, reliable and fault-tolerant. Most existing scheduling algorithms use fixed-number job replications to provide fault tolerant ability and high scheduling success rate, which consume excessive resources or can not provide sufficient fault tolerant functions when grid security conditions change. In this paper a fuzzy-logic-based self-adaptive replication scheduling (FSARS) algorithm is proposed to handle the fuzziness or uncertainties of job replication number which is highly related to trust factors behind grid sites and user jobs. Remote sensing-based soil moisture extraction (RSBSME) workload experiments in real grid environment are performed to evaluate the proposed approach and the results show that high scheduling success rate of up to 95% and less grid resource utilization can be achieved through FSARS. Extensive experiments show that FSARS scales well when user jobs and grid sites increase.
出处 《Tsinghua Science and Technology》 SCIE EI CAS 2007年第S1期45-50,共6页 清华大学学报(自然科学版(英文版)
基金 the Innovation Fund of Huazhong University of Science and Technology (No. HF04012006271)
关键词 fault tolerance grid security fuzzy logic job scheduling self-adaptive replication fault tolerance grid security fuzzy logic job scheduling self-adaptive replication
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参考文献5

  • 1Shanshan Song,Kai Hwang,Yu-Kwong Kwok.Trusted Grid Computing with Security Binding and Trust Integration[J].Journal of Grid Computing (-).2005(1-2)
  • 2Foster I,Kesselman C,Tuecke S.The anatomy of the grid: Enabling scalable virtual organizations[].International Journal of High Performance Computing Applications.2001
  • 3Braun T D,Hensgen D,Freund R,et al.A comparison of eleven static heuristics for mapping a class of independent tasks onto heterogeneous distributed computing systems[].Journal of Parallel and Distributed Computing.2001
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