• DocumentCode
    1099242
  • Title

    Stochastic Differential Equation Theory Applied to Wireless Channels

  • Author

    Tao Feng ; Field, T.R. ; Haykin, S.

  • Author_Institution
    McMaster Univ., Hamilton
  • Volume
    55
  • Issue
    8
  • fYear
    2007
  • Firstpage
    1478
  • Lastpage
    1483
  • Abstract
    Modeling wireless channels is essential to wireless communication systems. An autoregressive (AR) process of order one for wireless channel has long been assumed, but without a rigorous mathematical/physical basis. In this paper, we derive a first-order stochastic AR model for a flat stationary wireless channel, which comes from stochastic differential equation (SDE) theory concerning the nature of multipath fading channels. The resulting AR model describes more of the origin of multipath fading channels than previous AR models, and it can efficiently model and generate Rayleigh-distributed stationary fading channels. The Markovian property of the AR model is inherited through the SDE approach.
  • Keywords
    Markov processes; autoregressive processes; differential equations; fading channels; mobile radio; multipath channels; Rayleigh-distributed stationary fading channels; autoregressive process; multipath fading channels; stochastic differential equation theory; wireless channels; wireless communication systems; Autocorrelation; Differential equations; Doppler shift; Electromagnetic scattering; Fading; Mathematical model; Radar scattering; Receivers; Stochastic processes; Wireless communication; Autoregressive (AR) process; Rayleigh; multipath channels; stochastic differential equation (SDE);
  • fLanguage
    English
  • Journal_Title
    Communications, IEEE Transactions on
  • Publisher
    ieee
  • ISSN
    0090-6778
  • Type

    jour

  • DOI
    10.1109/TCOMM.2007.902531
  • Filename
    4291820