• DocumentCode
    1757994
  • Title

    Testing a Nanocrossbar for Multiple Fault Detection

  • Author

    Wenyi Feng ; Lombardi, Floriana ; Almurib, Haider A. F. ; Kumar, T. Nandha

  • Author_Institution
    Microsemi Corp., San Jose, CA, USA
  • Volume
    12
  • Issue
    4
  • fYear
    2013
  • fDate
    41456
  • Firstpage
    477
  • Lastpage
    485
  • Abstract
    This paper proposes an approach for testing a nanocrossbar switch; fault detection is considered in the presence of faulty switches and nets (of a permanent nature only) in the crossbar. To ensure detection, a one-to-one (onto) relationship in the setting (programming) of the switches is established in each of the configurations of the crossbar. This is accomplished using a constant-sum transformation of the characteristic matrix of the crossbar by utilizing different graph algorithms in O(N4.5) where N is the matrix dimension. Matrix properties are related to graph algorithms to generate permutation matrices as corresponding to the configurations (phases) of the crossbar. The conditions by which multiple faults are detected by the modified counting sequence (as test set), are proved. Simulation results are provided to further substantiate the validity of the proposed approach to test nanocrossbars of very large dimension and with different switch distribution.
  • Keywords
    fault diagnosis; graph theory; matrix algebra; molecular electronics; nanoelectronics; switches; characteristic matrix; constant sum transformation; crossbar configurations; crossbar phases; fault detection; faulty nets; faulty switches; graph algorithms; modified counting sequence; nanocrossbar switch; one to one relationship; permutation matrices; programming setting; testing; Bipartite graph; Fault detection; Matrix decomposition; Programming; Switches; Testing; Time complexity; Crossbar; nanotechnology; testing;
  • fLanguage
    English
  • Journal_Title
    Nanotechnology, IEEE Transactions on
  • Publisher
    ieee
  • ISSN
    1536-125X
  • Type

    jour

  • DOI
    10.1109/TNANO.2013.2252470
  • Filename
    6479366