DocumentCode
2225837
Title
Dynamic file replica location and selection strategy in data grids
Author
Cheng, Kuo-Yang ; Wang, Hsiao-Hsi ; Wen, Chia-Hsien ; Lin, Yaw-Ling ; Li, Kuan-Ching ; Wang, Cho-Li
Author_Institution
Nat. Center for High Performance Comput., Providence Univ., Providence, RI
fYear
2008
fDate
July 31 2008-Aug. 1 2008
Firstpage
484
Lastpage
489
Abstract
In this paper, we present the design of PU-DG optimizer toolbox (also known as PU-DG Optibox), which not only finds out the best strategy according to huge amount of simulation results but also proposes the min-max balancing workload method to upgrade the efficiency of execution in data grid environments. Data grid is one of key factors to build up large-scale dataset storage system and providing high performance computing capacity, by connecting scattered computing and storage resources located dispersedly in the grid. One major challenge in data grids is how to provide good and timely access to huge amount of data in distributed locations, given the high latency of interconnection networks. In this paper, we present the design framework of PU-DG Optibox for data grid environments. The proposed toolbox is a package containing a number of high-end techniques and methods running as middleware on top of data grid platforms, in order to optimize file downloads, by improving its efficiency and performance. The PU-DG Optibox provides users and developers possibilities for setting their own priority strategies. In addition, min-max balancing workload method is proposed to avoid that one computing node with lower network bandwidth to receive a job that has high complexity of job factor. Experimental results of techniques packaged in the proposed toolbox demonstrate its effectiveness.
Keywords
grid computing; middleware; minimax techniques; PU-DG Optibox; data grid selection strategy; dynamic file replica location; high-end techniques; interconnection networks; job factor complexity; large-scale dataset storage system; middlewares; min-max balancing workload method; optimizer toolbox; performance computing capacity; Computational modeling; Delay; Design optimization; Grid computing; High performance computing; Joining processes; Large-scale systems; Multiprocessor interconnection networks; Packaging; Scattering;
fLanguage
English
Publisher
ieee
Conference_Titel
Ubi-Media Computing, 2008 First IEEE International Conference on
Conference_Location
Lanzhou
Print_ISBN
978-1-4244-1865-7
Electronic_ISBN
978-1-4244-1866-4
Type
conf
DOI
10.1109/UMEDIA.2008.4570940
Filename
4570940
Link To Document