• DocumentCode
    1721693
  • Title

    Cyclo-static multiprocessing model and simulation results

  • Author

    Sukhamoy Som

  • Author_Institution
    Lockheed Eng. & Sci. Co., Hampton, VA
  • fYear
    1994
  • Firstpage
    106
  • Lastpage
    114
  • Abstract
    The Algorithm To Architecture Mapping Model (ATAMM) is a scheduling strategy for predictable performance in real-time multiprocessor dataflow architectures. The architecture under consideration consists of either heterogeneous or homogeneous processors and implements dataflow models of real-time applications with a cyclo-static assignment scheme. Terminology is developed for graph partitioning, heterogeneous computing, and assignment classifications. A design methodology is described for partitioning dataflow graphs into blocks of nodes (operations) for the purpose of cyclo-static node-to-processor assignment while satisfying a design objective. A theorem is developed and proved to provide cyclo-static assignment of node blocks and illustrated by simulation results
  • Keywords
    multiprocessing systems; parallel processing; real-time systems; scheduling; virtual machines; Algorithm To Architecture Mapping Model; assignment classifications; cycle-static assignment scheme; cyclo-static assignment; cyclo-static multiprocessing model; cyclo-static node-to-processor assignment; dataflow graph partitioning; dataflow models; design methodology; graph partitioning; heterogeneous computing; heterogeneous processors; homogeneous processor; node blocks; predictable performance; real-time applications; real-time multiprocessor dataflow architecture; scheduling strategy; simulation; Computer architecture; Data engineering; NASA; Partitioning algorithms; Predictive models; Processor scheduling; Scheduling algorithm; Steady-state; Terminology; Very high speed integrated circuits;
  • fLanguage
    English
  • Publisher
    ieee
  • Conference_Titel
    Simulation Symposium, 1994., 27th Annual
  • Conference_Location
    La Jolla, CA
  • Print_ISBN
    0-8186-5620-4
  • Type

    conf

  • DOI
    10.1109/SIMSYM.1994.283107
  • Filename
    283107