• DocumentCode
    3119810
  • Title

    An improved 2-D model for indoor radio propagation at MM frequencies

  • Author

    Ghobadi, Ch ; Shepherd, P.R. ; Pennock, S.R.

  • Author_Institution
    Bath Univ., UK
  • fYear
    1996
  • fDate
    35415
  • Firstpage
    42675
  • Lastpage
    42680
  • Abstract
    We propose a deterministic approach to model the radio propagation channels in complex environments. In this technique we divide the environment into small and equal rectangular cells. Each box can have its own permittivity and conductivity. The simulation is based on geometric optics and uses ray launching and ray tracing techniques. The information needed to reconstruct the field strength pattern inside each cell, such as the angle, distance from source and polarization of each ray, are calculated on the boundary of every cell. The effects of all rectangular obstacles, such as walls, doors, columns, and so on, are considered by the model. Both reflection and refraction effects are taken into account. Simulation results are presented and the reliability of these results is examined by comparing them with those obtained from measurements at 60 GHz. We also show that it is possible to minimise the simulation time of the model by an appropriate choice of cell size
  • Keywords
    millimetre wave propagation; 2D model; 60 GHz; EHF; angle; cell size; columns; conductivity; deterministic approach; doors; field strength pattern reconstruction; geometric optics; indoor radio propagation; multipath fading; permittivity; radio propagation channels; ray launching; ray polarization; ray tracing; rectangular cells; rectangular obstacles; reflection effects; refraction effects; simulation; simulation results; source distance; walls;
  • fLanguage
    English
  • Publisher
    iet
  • Conference_Titel
    Radio Communications at Microwave and Millimetre Wave Frequencies (Digest No. 1996/239), IEE Colloquium on
  • Conference_Location
    London
  • Type

    conf

  • DOI
    10.1049/ic:19961285
  • Filename
    600748