DocumentCode
73510
Title
Novel Closed-Form Exact Expressions and Asymptotic Analysis for the Symbol Error Rate of Single- and Multiple-Branch MRC and EGC Receivers Over
– ![]()
Author
El Ayadi, Moataz M. H. ; Ismail, Mahmoud H.
Author_Institution
Dept. of Eng. Math. & Phys., Cairo Univ., Giza, Egypt
Volume
63
Issue
9
fYear
2014
fDate
Nov. 2014
Firstpage
4277
Lastpage
4291
Abstract
In this paper, we present a novel framework for deriving closed-form exact expressions for the symbol error rate (SER) of α-μ fading channels, assuming single-branch and equalgain combining and maximal-ratio combining receivers and considering most of the commonly used modulation schemes. The proposed framework is based on Mellin transform, and the SER expressions are given in terms of the univariate and multivariate Fox H-functions, which have recently been extensively used in the literature. The proposed framework has the following advantages over previous frameworks: First, it is straightforward and general; therefore, it allows the derivation of the exact SER expressions for cases untreated before in the literature. Second, it enables direct derivation for the asymptotic expressions of the SER for high average signal-to-noise ratios (SNRs). To validate the obtained expressions, we compare the results of the special case of the Nakagami-m fading channel with those reported in the literature. Furthermore, Monte Carlo simulations are conducted, and their results are shown to perfectly match the analytic expressions. Finally, the obtained asymptotic expressions for all the studied modulation schemes and diversity receivers are shown to match the behavior of their corresponding exact values for a wide range of SNR values that are of practical interest.
Keywords
Monte Carlo methods; Nakagami channels; diversity reception; error statistics; modulation; radio receivers; α-μ Fading; EGC receivers; Mellin transform; Monte Carlo simulations; SER expressions; SNR; asymptotic analysis; closed-form exact expressions; equal-gain combining; fading channels; maximal-ratio combining receivers; modulation schemes; multiple-branch MRC; signal-to-noise ratios; symbol error rate; Closed-form solutions; Diversity reception; Fading; Modulation; Receivers; Signal to noise ratio; Transforms; $alpha$¿¿¿ $mu$ fading; Asymptotic analysis; Fox $H$-function; diversity systems; symbol error rate (SER);
fLanguage
English
Journal_Title
Vehicular Technology, IEEE Transactions on
Publisher
ieee
ISSN
0018-9545
Type
jour
DOI
10.1109/TVT.2014.2316418
Filename
6786455
Link To Document