• DocumentCode
    3595489
  • Title

    Delayed offloading using cloud cooperated millimeter wave gates

  • Author

    Mohamed, Ehab Mahmoud ; Sakaguchi, Kei ; Sampei, Seiichi

  • Author_Institution
    Grad. Sch. of Eng., Osaka Univ., Suita, Japan
  • fYear
    2014
  • Firstpage
    1852
  • Lastpage
    1856
  • Abstract
    Increasing wireless cellular networks capacity is one of the major challenges for the coming years, especially if we consider the annual doubling of mobile user traffic. Towards that and thanks to the fact that a significant amount of mobile data is indeed delay tolerable, in this paper, we suggest embedding the delayed offloading of some user traffic to be a part of future wireless cellular networks. To accomplish this, user delayed files will be offloaded using ultra-high speed Millimeter Wave (Mm-W) gates. The Mm-W gate, which will be distributed inside the Macro basestation (BS) area, consists of number of Mm-W Access Points (APs) controlled by a local coordinator installed inside the gate. To effectively manage the delayed offloading mechanism, utilizing the concept of User/Control (U/C) data splitting, the gates coordinators and the Macro BS are connected to the Cloud Radio Access Network (C-RAN) through optical fiber links. Also, files offloading organizer software is used by the User Equipment (UE). A novel weighted proportional fairness (WPF) user scheduling algorithm is proposed to maximize the Gate Offloading Efficiency (GOFE) with maintaining long term fairness among the different mobility users pass through the gate. If the gate is properly designed and the files delay deadlines are properly set; near 100% GOFE with average reduction of 99.7% in UE energy consumption can be obtained, in time the user just passes through the gate.
  • Keywords
    cellular radio; cloud computing; energy consumption; optical fibre networks; radio access networks; telecommunication scheduling; GOFE; Mm-W access points; Mm-W gate; UE energy consumption; cloud cooperated millimeter wave gates; cloud radio access network; control data splitting; delayed offloading; gate offloading efficiency; macrobase station area; mobile data; mobile user traffic; offloading organizer software; optical fiber links; ultra-high speed Millimeter Wave gates; user data splitting; user equipment; user scheduling algorithm; weighted proportional fairness; wireless cellular networks capacity; Energy consumption; IEEE 802.11 Standards; Logic gates; Mobile communication; Scheduling; Scheduling algorithms; Software;
  • fLanguage
    English
  • Publisher
    ieee
  • Conference_Titel
    Personal, Indoor, and Mobile Radio Communication (PIMRC), 2014 IEEE 25th Annual International Symposium on
  • Type

    conf

  • DOI
    10.1109/PIMRC.2014.7136471
  • Filename
    7136471