DocumentCode :
1492948
Title :
Probability of bit error for MPSK modulation with diversity reception in Rayleigh fading and log-normal shadowing channel
Author :
Yung, Wing-po
Author_Institution :
GTE Lab. Inc., Waltham, MA, USA
Volume :
38
Issue :
7
fYear :
1990
fDate :
7/1/1990 12:00:00 AM
Firstpage :
933
Lastpage :
937
Abstract :
In an additive white Gaussian noise channel subject to Rayleigh fading and log-normal shadowing, consideration is given to diversity reception with K-port macroscopic selection and L-branch microscopic maximal-ratio combining, and analytical expressions are derived for upper and lower bounds on the bit error probabilities for BPSK, QPSK, 8-PSK, and 16-PSK modulations. The derived expressions can be evaluated at any location in the serving cell. Error-probability can be calculated by averaging over all possible locations within the serving cell. By evaluating these bounds, numerical results for the following cases are presented: without diversity reception, microdiversity combining, macrodiversity selection, and simultaneous use of macrodiversity selection and microdiversity combining. For symmetrical arrangement of macrodiversity ports against the lognormal shadowing, error probability at the equidistant point gives upper bounds on the error probabilities for most of the area in the serving cell. Error probability at the equidistant point is a good estimate of the error probability obtained by averaging over all possible locations in the cell
Keywords :
digital radio systems; diversity reception; fading; mobile radio systems; phase shift keying; telecommunication channels; 16-PSK; 8-PSK; AWGN channel; BPSK; K-port macroscopic selection; L-branch microscopic maximal-ratio combining; MPSK modulation; QPSK; Rayleigh fading; additive white Gaussian noise channel; bit error probabilities; diversity reception; equidistant point; log-normal shadowing; lower bounds; macrodiversity selection; microdiversity combining; mobile radio; numerical results; serving cell; upper bounds; AWGN; Additive white noise; Binary phase shift keying; Diversity reception; Error probability; Fading; Microscopy; Quadrature phase shift keying; Rayleigh channels; Shadow mapping;
fLanguage :
English
Journal_Title :
Communications, IEEE Transactions on
Publisher :
ieee
ISSN :
0090-6778
Type :
jour
DOI :
10.1109/26.57491
Filename :
57491
Link To Document :
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