DocumentCode
770428
Title
On the error probability of linearly modulated signals on frequency-flat Ricean, Rayleigh, and AWGN channels
Author
Shayesteh, M.G. ; Aghamohammadi, A.
Author_Institution
Dept. of Electron. Eng., Urmia Univ., Iran
Volume
43
Issue
38020
fYear
1995
Firstpage
1454
Lastpage
1466
Abstract
The method used in Aghamohammadi and Meyr (1990) for finding the error probability of linearly modulated signals on Rayleigh frequency-flat fading channels has been applied to the more general case of Ricean fading. A signal received on a fading channel is subject to a multiplicative distortion (MD) and to the usual additive noise. Following a compensation of the MD, the signal provided to the detector may be thought to include only a single additive distortion term ("final noise"), which comprises the effects of the original additive noise, the MD, and the error in MD compensation. An exact expression for the probability density function of the final noise is derived. This allows calculation of error probability for arbitrary types of linear modulations. Results for many cases of interest are presented. Furthermore, as special cases of Ricean fading, error probability for Rayleigh fading and non-fading channels are obtained which either match the results or complete the approximate derivations formerly known from the literature.<>
Keywords
Gaussian channels; Rayleigh channels; Rician channels; error statistics; fading; interference (signal); phase shift keying; quadrature amplitude modulation; signal detection; AWGN channels; PSK; QAM; Rayleigh channels; Ricean channels; additive noise; error probability; fading channel; final noise; frequency-flat channels; linear modulations; linearly modulated signal; linearly modulated signals; multiplicative distortion; nonfading channel; probability density function; Additive noise; Chirp modulation; Detectors; Distortion; Error probability; Fading; Probability density function; Rayleigh channels;
fLanguage
English
Journal_Title
Communications, IEEE Transactions on
Publisher
ieee
ISSN
0090-6778
Type
jour
DOI
10.1109/26.380195
Filename
380195
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