DocumentCode
2921995
Title
Performance of trellis coded M-PSK and neural network equivalent systems over partial response-fading channels with imperfect phase reference
Author
Uçan, Osman Nuri
Author_Institution
Fac. of Electr. & Electron. Eng., Istanbul Tech. Univ., Turkey
Volume
2
fYear
1996
fDate
29 Sep-2 Oct 1996
Firstpage
528
Abstract
For the first time in the literature, a partial response-fading channel is introduced. The new channel model acts like partial response signalling (PRS) having Rician probability density function. Analytical upper bounds of the trellis coded M-PSK structures are derived using Chernoff bounding technique, combined with the modified generating functional approach for partial response-fading channel with ideal state information (CSI), and no side information existing on the phase noise process. One interesting result is that trellis coded 4PSK systems have better error performance over partial response-fading channel than classical Rician channel for signal to noise ratios greater than a threshold value, which has the best error performance in the literature. Neural network models of the trellis coded 4PSK scheme are introduced for the first time in the literature over partial response-fading channels. The bit error event curves are derived using back-propogation algorithm
Keywords
Rician channels; backpropagation; error statistics; fading; neural nets; partial response channels; phase shift keying; probability; telecommunication signalling; trellis coded modulation; Chernoff bounding technique; Rician probability density function; analytical upper bounds; back-propogation algorithm; bit error event curves; error performance; generating functional approach; ideal state information; imperfect phase reference; neural network equivalent systems; partial response signalling; partial response-fading channels; performance; phase noise process; signal to noise ratios; trellis coded 4PSK systems; trellis coded M-PSK; Fading; Information analysis; Neural networks; Performance analysis; Phase noise; Probability density function; Rayleigh channels; Rician channels; Signal to noise ratio; Upper bound;
fLanguage
English
Publisher
ieee
Conference_Titel
Universal Personal Communications, 1996. Record., 1996 5th IEEE International Conference on
Conference_Location
Cambridge, MA
Print_ISBN
0-7803-3300-4
Type
conf
DOI
10.1109/ICUPC.1996.562629
Filename
562629
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