• DocumentCode
    1306045
  • Title

    Optimal transmit-receiver design in the presence of signal-dependent interference and channel noise

  • Author

    Pillai, S.U. ; Oh, H.S. ; Youla, D.C. ; Guerci, J.R.

  • Author_Institution
    Dept. of Electr. Eng., Polytech. Univ., Brooklyn, NY, USA
  • Volume
    46
  • Issue
    2
  • fYear
    2000
  • fDate
    3/1/2000 12:00:00 AM
  • Firstpage
    577
  • Lastpage
    584
  • Abstract
    Optimal detection of a target return contaminated by signal-dependent interference, as well as additive channel noise, requires the design of a transmit pulse f(t) and a receiver impulse response h(t) jointly maximizing the output signal to interference plus noise ratio (SINR). Despite the highly nonlinear nature of this problem, it has been possible to show that f(t) may always be chosen minimum-phase. A full analysis concludes with the construction of an effective numerical procedure for the determination of optimal pairs (f,h) that appears to converge satisfactorily for most values of input SINR. Extensive simulation reveals that the shape of f(t) can be a critical factor. In particular, the performance of a chirp-like pulse is often unacceptable, especially when clutter and channel noise are low-pass dominant and comparable
  • Keywords
    clutter; noise; optimisation; radio receivers; radio transmitters; radiofrequency interference; signal detection; additive channel noise; channel noise; chirp-like pulse; clutter; input SINR; optimal detection; optimal transmit-receiver design; output SINR; performance; receiver impulse response; signal to interference plus noise ratio; signal-dependent interference; simulation; transmit pulse design; Additive noise; Chirp; Clutter; Interference; Radar detection; Senior members; Shape; Signal design; Signal to noise ratio; Sonar detection;
  • fLanguage
    English
  • Journal_Title
    Information Theory, IEEE Transactions on
  • Publisher
    ieee
  • ISSN
    0018-9448
  • Type

    jour

  • DOI
    10.1109/18.825822
  • Filename
    825822