• Title/Summary/Keyword: 꼬인 큐브

Search Result 4, Processing Time 0.018 seconds

Twisted Cube Torus(TT): A New Class of Torus Interconnection Networks Based on 3-Dimensional Twisted Cube (꼬인 큐브 토러스: 3차원 꼬인 큐브에 기반한 새로운 토러스 상호연결망)

  • Kim, Jong-Seok;Lee, Hyeong-Ok;Kim, Sung-Won
    • The KIPS Transactions:PartA
    • /
    • v.18A no.5
    • /
    • pp.205-214
    • /
    • 2011
  • We propose a new interconnection network, called Twisted cube torus(TT) network based on well-known 3-dimensional twisted cube. Twisted cube torus network has smaller diameter and improved network cost than honeycomb torus with the same number of nodes. In this paper, we propose routing algorithm of Twisted cube torus network and analyze its diameter, network cost, bisection width and hamiltonian cycle.

Hamiltonian Paths in Restricted Hypercube-Like Graphs with Edge Faults (에지 고장이 있는 Restricted Hypercube-Like 그래프의 해밀톤 경로)

  • Kim, Sook-Yeon;Chun, Byung-Tae
    • The KIPS Transactions:PartA
    • /
    • v.18A no.6
    • /
    • pp.225-232
    • /
    • 2011
  • Restricted Hypercube-Like (RHL) graphs are a graph class that widely includes useful interconnection networks such as crossed cube, Mobius cube, Mcube, twisted cube, locally twisted cube, multiply twisted cube, and generalized twisted cube. In this paper, we show that for an m-dimensional RHL graph G, $m{\geq}4$, with an arbitrary faulty edge set $F{\subset}E(G)$, ${\mid}F{\mid}{\leq}m-2$, graph $G{\setminus}F$ has a hamiltonian path between any distinct two nodes s and t if dist(s, V(F))${\neq}1$ or dist(t, V(F))${\neq}1$. Graph $G{\setminus}F$ is the graph G whose faulty edges are removed. Set V(F) is the end vertex set of the edges in F and dist(v, V(F)) is the minimum distance between vertex v and the vertices in V(F).

Embedding Multiple Meshes into a Twisted Cube (다중 메쉬의 꼬인 큐브에 대한 임베딩)

  • Kim, Sook-Yeon
    • Journal of KIISE:Computer Systems and Theory
    • /
    • v.37 no.2
    • /
    • pp.61-65
    • /
    • 2010
  • The twisted cube has received great attention because it has several superior properties to the hypercube that is widely known as a versatile parallel processing system. In this paper, we show that node-disjoint $2^{n-1}$ meshes of size $2^n{\times}2^m$ can be embedded into a twisted cube with dilation 1 where $1{\leq}n{\leq}m$. The expansion is 1 for even m and 2 for odd m.

Embedding a Mesh of Size 2n ×2m Into a Twisted Cube (크기 2n ×2m인 메쉬의 꼬인 큐브에 대한 임베딩)

  • Kim, Sook-Yeon
    • The KIPS Transactions:PartA
    • /
    • v.16A no.4
    • /
    • pp.223-226
    • /
    • 2009
  • The twisted cube has received great attention as an interconnection network of parallel systems because it has several superior properties, especially in diameter, to the hypercube. It was recently known that, for even m, a mesh of size $2{\times}2^m$ can be embedded into a twisted cube with dilation 1 and expansion 1 and a mesh of size $4{\times}2^m$ with dilation 1 and expansion 2 [Lai and Tsai, 2008]. However, as we know, it has been a conjecture that a mesh with more than eight rows and columns can be embedded into a twisted cube with dilation 1. In this paper, we show that a mesh of size $2^n{\times}2^m$ can be embedded into a twisted cube with dilation 1 and expansion $2^{n-1}$ for even m and with dilation 1 and expansion $2^n$ for odd m where $1{\leq}n{\leq}m$.