Super Structure Fault-Tolerance Assessment of the Generalized Hypercube

被引:2
|
作者
Shu, Chang [1 ]
Wang, Yan [1 ]
Fan, Jianxi [1 ]
Wang, Guijuan [2 ,3 ]
机构
[1] Soochow Univ, Sch Comp Sci & Technol, Suzhou 215006, Peoples R China
[2] Qilu Univ Technol, Shandong Acad Sci, Shandong Comp Sci Ctr, Natl Supercomp Ctr Jinan,Key Lab Comp Power Networ, Jinan 250353, Peoples R China
[3] Shandong Fundamental Res Ctr Comp Sci, Shandong Prov Key Lab Comp Networks, Jinan 250353, Peoples R China
来源
COMPUTER JOURNAL | 2024年 / 67卷 / 04期
基金
中国国家自然科学基金;
关键词
generalized hypercube; super structure fault-tolerance; structure connectivity; super connectivity; SUBSTRUCTURE CONNECTIVITY;
D O I
10.1093/comjnl/bxad072
中图分类号
TP3 [计算技术、计算机技术];
学科分类号
0812 ;
摘要
Fault-tolerant performance of a network is the prerequisite and guarantee for the normal operation of a network, which is often characterized by connectivity. Let H denote a connected subgraph of G and H-* denote the union of the set of all connected subgraphs of H and the set of the trivial graph. Super H-connectivity (resp. super H-*-connectivity) satisfies the conditions of both super connectivity and H-structure connectivity (resp. H-substructure connectivity). These two kinds of new connectivity provide a new metric to measure the fault-tolerance of the network, that is, the super structure fault-tolerance. The generalized hypercube G(m(r), m(r-1), ..., m(1)) is a universal topology of interconnection networks that contains other commonly used topologies and it has been applied in many data center networks because of its excellent qualities. In this paper, we research the super structure fault-tolerance of G(m(r), m(r-1), ..., m(1)) by studying super H-connectivity ?'(G|H) and super H-*-connectivity ?'(G|H-*) for H ? {K-1,K-M, C-3, C-4, K-4}.
引用
收藏
页码:1457 / 1466
页数:10
相关论文
共 50 条
  • [31] Connectivity and fault-tolerance of hyperdigraphs
    Ferrero, D
    Padró, C
    DISCRETE APPLIED MATHEMATICS, 2002, 117 (1-3) : 15 - 26
  • [32] Fault-tolerance with multimodule routers
    Chalasani, S
    Boppana, RV
    SECOND INTERNATIONAL SYMPOSIUM ON HIGH-PERFORMANCE COMPUTER ARCHITECTURE, PROCEEDINGS, 1996, : 201 - 210
  • [33] Randomness versus fault-tolerance
    Canetti, R
    Kushilevitz, E
    Ostrovsky, R
    Rosén, A
    JOURNAL OF CRYPTOLOGY, 2000, 13 (01) : 107 - 142
  • [34] A fault-tolerance mechanism in grid
    Jin, L
    Tong, WQ
    Tang, HQ
    Wang, B
    INDIN 2003: IEEE INTERNATIONAL CONFERENCE ON INDUSTRIAL INFORMATICS, PROCEEDINGS, 2003, : 457 - 461
  • [35] SUBCUBE FAULT-TOLERANCE IN HYPERCUBES
    GRAHAM, N
    HARARY, F
    LIVINGSTON, M
    STOUT, QF
    INFORMATION AND COMPUTATION, 1993, 102 (02) : 280 - 314
  • [36] Fault-tolerance in biochemical systems
    Winfree, Erik
    UNCONVENTIONAL COMPUTATION, PROCEEDINGS, 2006, 4135 : 26 - 26
  • [37] ISSUES IN SECURITY AND FAULT-TOLERANCE
    HARTIG, H
    KUHNHAUSER, W
    LIEDTKE, J
    LECTURE NOTES IN COMPUTER SCIENCE, 1991, 563 : 212 - 216
  • [38] A unified fault-tolerance protocol
    Miner, P
    Geser, A
    Pike, L
    Maddalon, J
    FORMAL TECHNIQUES, MODELLING AND ANALYSIS OF TIMED AND FAULT-TOLERANT SYSTEMS, PROCEEDINGS, 2004, 3253 : 167 - 182
  • [39] Randomness versus Fault-Tolerance
    Ran Canetti
    Eyal Kushilevitz
    Rafail Ostrovsky
    Adi Rosén
    Journal of Cryptology, 2000, 13 : 107 - 142
  • [40] FAULT-TOLERANCE SUPPORT IN A SERVODRIVE
    KULIK, AS
    AVTOMATIKA, 1986, (05): : 68 - 71