• DocumentCode
    606827
  • Title

    Epidemic survivability: Characterizing networks under epidemic-like failure propagation scenarios

  • Author

    Manzano, M. ; Calle, E. ; Ripoll, J. ; Fagertun, Anna Manolova ; Torres-Padrosa, V.

  • Author_Institution
    Inst. of Inf. & Applic. (IliA), Univ. of Girona, Girona, Spain
  • fYear
    2013
  • fDate
    4-7 March 2013
  • Firstpage
    95
  • Lastpage
    102
  • Abstract
    Epidemics theory has been used in different contexts in order to describe the propagation of diseases, human interactions or natural phenomena. In computer science, virus spreading has been also characterized using epidemic models. Although in the past the use of epidemic models in telecommunication networks has not been extensively considered, nowadays, with the increasing computation capacity and complexity of operating systems of modern network devices (routers, switches, etc.), the study of possible epidemic-like failure scenarios must be taken into account. When epidemics occur, such as in other multiple failure scenarios, identifying the level of vulnerability offered by a network is one of the main challenges. In this paper, we present epidemic survivability, a new network measure that describes the vulnerability of each node of a network under a specific epidemic intensity. Moreover, this metric is able to identify the set of nodes which are more vulnerable under an epidemic attack. In addition, two applications of epidemic survivability are provided. First, we introduce epidemic criticality, a novel robustness metric for epidemic failure scenarios. A case study shows the utility of this new metric comparing several network topologies and epidemic intensities. Then, two immunization strategies are proposed: high epidemic survivability (HES) and high epidemic survivability adaptive (HESA). The presented results show that network vulnerability can be significantly reduced by using our proposals, compared to other well-known existing methods.
  • Keywords
    telecommunication network reliability; telecommunication network topology; HESA; computation capacity; computation complexity; computer science; disease propagation; epidemic attack; epidemic criticality; epidemic failure scenarios; epidemic intensity; epidemic models; epidemic-like failure propagation scenarios; epidemic-like failure scenarios; epidemics theory; high epidemic survivability adaptive; human interactions; immunization strategy; natural phenomena; network devices; network topology; network vulnerability; operating systems; robustness metric; telecommunication networks; virus spreading; Eigenvalues and eigenfunctions; Mathematical model; Measurement; Network topology; Proposals; Robustness; Topology; Epidemics; Immunization; Multiple Failures; Network Characterization; Robustness Metrics;
  • fLanguage
    English
  • Publisher
    ieee
  • Conference_Titel
    Design of Reliable Communication Networks (DRCN), 2013 9th International Conference on the
  • Conference_Location
    Budapest
  • Print_ISBN
    978-1-4799-0049-7
  • Type

    conf

  • Filename
    6529887