• DocumentCode
    3579647
  • Title

    Dependable multi-tenant infrastructures supporting cloud and mobile cloud services

  • Author

    Anastasopoulos, Markos P. ; Tzanakaki, Anna ; Simeonidou, Dimitra

  • Author_Institution
    High Performance Networks Groups, Univ. of Bristol, Bristol, UK
  • fYear
    2014
  • Firstpage
    1511
  • Lastpage
    1516
  • Abstract
    This paper focuses on the design of dependable Mobile Optical Virtual Networks (MOVNOs) to enable multi-tenancy over converged wireless, optical and computational infrastructures supporting cloud and mobile cloud services. Dependability is defined as the MOVNO´s ability to offer resilience in case of network or computing resource failures and security guarantees in terms of isolation between MOVNOs that share the common physical infrastructure. The VI planning optimization objective is to minimize the overall energy consumption satisfying at the same time specific end-to-end delay constraints. To address these issues, together with the uncertainty introduced by the mobility of the end devices we proposed a MOVNO planning scheme based on non-linear programming. Our modeling results illustrate interesting trade-offs between the overall energy consumption of the MOVNOs, the mobility of the end-devices, as well as the dependability impact on the energy consumption and the utilization of the infrastructure resources.
  • Keywords
    cloud computing; computer network reliability; computer network security; minimisation; mobility management (mobile radio); nonlinear programming; optical fibre networks; telecommunication power management; MOVNO planning scheme; VI planning optimization objective; common physical infrastructure; computing resource failures; converged computational infrastructure; converged optical infrastructure; converged wireless infrastructure; dependable mobile optical virtual networks; dependable multitenant infrastructures; end device mobility; infrastructure resource utilization; mobile cloud services; network resource failures; nonlinear programming; overall energy consumption; overall energy consumption minimization; security guarantees; time specific end-to-end delay constraints; Cloud computing; Mobile communication; Mobile computing; Optical fiber networks; Planning; Security; Wireless communication; cloud computing; energy efficiency; mobile cloud; mobile optical virtual networks;
  • fLanguage
    English
  • Publisher
    ieee
  • Conference_Titel
    Globecom Workshops (GC Wkshps), 2014
  • Type

    conf

  • DOI
    10.1109/GLOCOMW.2014.7063648
  • Filename
    7063648