• DocumentCode
    3485458
  • Title

    On simulations of linear arrays, rings and 2D meshes on Fibonacci cube networks

  • Author

    Cong, Baoqiang ; Zheng, S.Q. ; Sharma, Sanjay

  • Author_Institution
    Dept. of Comput. Sci., South Dakota State Univ., Brookings, SD, USA
  • fYear
    1993
  • fDate
    13-16 Apr 1993
  • Firstpage
    748
  • Lastpage
    751
  • Abstract
    The Fibonacci cube was proposed recently as an interconnection network. It has been shown that this new network topology possesses many interesting properties that are important in network design and applications. This paper addresses the following network simulation problem: Given a linear array, a ring or a two-dimensional mesh, how can be assign its nodes to the Fibonacci cube nodes so as to keep their adjacent nodes near each other in the Fibonacci cube. The authors first show a simple fact that there is a Hamiltonian path in any Fibonacci cube. They prove that any ring structure can be embedded into its corresponding optimum Fibonacci cube (the smallest Fibonacci cube with at least the number of nodes in the ring) with dilation 2, which is optimum for most cases. Then, they describe dilation 1 embeddings of a class of meshes into their corresponding optimum Fibonacci cubes. Finally, it is shown that an arbitrary mesh can be embedded into its corresponding optimum or near-optimum Fibonacci cube with dilation 2
  • Keywords
    multiprocessor interconnection networks; 2D meshes; Fibonacci cube networks; Hamiltonian path; adjacent nodes; interconnection network; linear arrays; network design; network topology; ring structure; rings; Application software; Computational modeling; Computer science; Delay; Hypercubes; Multiprocessor interconnection networks; Network topology; Out of order;
  • fLanguage
    English
  • Publisher
    ieee
  • Conference_Titel
    Parallel Processing Symposium, 1993., Proceedings of Seventh International
  • Conference_Location
    Newport, CA
  • Print_ISBN
    0-8186-3442-1
  • Type

    conf

  • DOI
    10.1109/IPPS.1993.262788
  • Filename
    262788