DocumentCode
3419333
Title
Osculant: a multiprocessor self-organizing task scheduler
Author
Wu, Hsinho ; Chen, Chaofeng ; Taylor, Fred
Author_Institution
High-Speed Digital Archit. Lab., Florida Univ., Gainesville, FL, USA
fYear
1997
fDate
5-7 Feb 1997
Firstpage
35
Lastpage
41
Abstract
The world of computing is rapidly changing. One model states that in the future a variety of mobile and/or relocatable computational assets will be rapidly configured and synergistically linked together to achieve a desired outcome. From a logistical viewpoint, these assets will be a collection of interconnected heterogeneous resources ranging possibly high-end platforms to simple man portable systems. This articulated environment must be more mobile, reconfigurable, and fault-tolerant than those currently found in common use. A new bottom-up resource scheduling paradigm, called Osculant, is being studied as the facilitating technology. The paper develops Osculant both from a conceptual and well as experimental standpoint. Simulated results are presented which indicates that Osculant can perform as well, and is generally better in balancing system resources than traditional task schedulers. Issues regarding network communication requirements, processor capabilities, logistics, scheduling details are developed and discussed. Because of self-organized framework provided by Osculant, it will also be shown that it has superior fault recovery capabilities in comparison to traditional top-down schedulers
Keywords
computer network reliability; fault tolerant computing; multiprocessing systems; system recovery; Osculant; articulated environment; bottom-up resource scheduling paradigm; facilitating technology; fault recovery capabilities; high-end platforms; interconnected heterogeneous resources; multiprocessor self-organizing task scheduler; relocatable computational assets; self-organized framework; simple man portable systems; top-down schedulers; Chaotic communication; Computer architecture; Fault tolerant systems; Laboratories; Mobile computing; Processor scheduling; Programming environments; Real time systems; Robustness; Scheduling algorithm;
fLanguage
English
Publisher
ieee
Conference_Titel
Performance, Computing, and Communications Conference, 1997. IPCCC 1997., IEEE International
Conference_Location
Phoenix, Tempe, AZ
Print_ISBN
0-7803-3873-1
Type
conf
DOI
10.1109/PCCC.1997.581373
Filename
581373
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