• DocumentCode
    3595565
  • Title

    Uncoordinated strategies for inter-BAN interference mitigation

  • Author

    Alasti, Mehdi ; Barbi, Martina ; Sayrafian, Kamran

  • Author_Institution
    Inf. Technol. Lab., Nat. Inst. of Stand. & Technol., Gaithersburg, MD, USA
  • fYear
    2014
  • Firstpage
    2150
  • Lastpage
    2154
  • Abstract
    A Body Area Network (BAN) is a radio standard for wireless connectivity of wearable and implantable sensor nodes that are located inside or in proximity to the human body. Many applications of BANs (e.g. physiological monitoring) require reliable communication of information between the sensor nodes and their controller. As there are currently no coordinating mechanisms among multiple co-located BANs, interference caused by co-channel transmission in adjacent BANs could impact the reliability and in general quality of the service experienced by a receiver node within an individual BAN. Here, we present a simulation platform that allows for statistical evaluation of interference in multi-BAN scenarios and performance of possible mitigation algorithms. Currently, there are no mechanisms for interfering BANs to explicitly coordinate their transmissions. As our analysis show, this may result in unacceptably high interference; and therefore, high link outage probability by the intended receiver. We propose uncoordinated approaches that could help to ease cross-interference among multiple adjacent BANs. Simulation results in our preliminary studies support the effectiveness of our approach.
  • Keywords
    body area networks; cochannel interference; interference suppression; probability; radio links; radio receivers; statistical analysis; telecommunication network reliability; body area network; cochannel transmission; human body; implantable sensor node; information communication reliability; inter-BAN interference mitigation; interference mitigation; link outage probability; quality of service; receiver node; statistical evaluation; wearable sensor node; wireless connectivity; Body area networks; Channel models; Complexity theory; Interference; Receivers; Reliability; Standards; body area network; interference; reliability;
  • 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.2014.7136528
  • Filename
    7136528