%0 Conference Paper %1 solms_maximum_1994 %A Solms, F. %A Rooyen, P. van %A Kunicki, J. %B Communications and Signal Processing, 1994. COMSIG-94., Proceedings of the 1994 IEEE South African Symposium on %D 1994 %K Gauss analysis average communication communication; digital distribution; entropy error high maximum method; methods; moments; performance probability; quadrature rate; rates; ratio; ratios; rule; signal-to-noise statistical statistics; system systems; {MEM}; {SNR}; %P 11--15 %R 10.1109/COMSIG.1994.512353 %T Maximum entropy and average error rates in digital communication systems %X In digital communication systems, the criteria of merit of system performance is usually average probability of error as function of signal-to-noise ratio. The Gauss quadrature rule (GQR) formulation and the maximum entropy method (MEM) have been proposed in the literature to determine and calculate an unknown distribution and average error rate from moments. We compare the accuracy of these two methods when a distribution is estimated and the average error rate is calculated. It is shown that the MEM needs significantly less moments when the distribution is estimated from its moments than the GQR formulation, and that the GQR formulation fails under certain conditions when average error rate is calculated. Specifically, the latter is encountered at high signal-to-noise ratios, where the MEM still delivers reliable results

@inproceedings{solms_maximum_1994, abstract = {In digital communication systems, the criteria of merit of system performance is usually average probability of error as function of signal-to-noise ratio. The Gauss quadrature rule {(GQR)} formulation and the maximum entropy method {(MEM)} have been proposed in the literature to determine and calculate an unknown distribution and average error rate from moments. We compare the accuracy of these two methods when a distribution is estimated and the average error rate is calculated. It is shown that the {MEM} needs significantly less moments when the distribution is estimated from its moments than the {GQR} formulation, and that the {GQR} formulation fails under certain conditions when average error rate is calculated. Specifically, the latter is encountered at high signal-to-noise ratios, where the {MEM} still delivers reliable results}, added-at = {2013-02-28T11:13:35.000+0100}, author = {Solms, F. and Rooyen, P. van and Kunicki, J.}, biburl = {https://www.bibsonomy.org/bibtex/2d66823aadb1049af9de9605a73a7647e/fritzsolms}, booktitle = {{Communications and Signal Processing, 1994. {COMSIG-94.}, Proceedings of the 1994 {IEEE} South African Symposium on}}, doi = {10.1109/COMSIG.1994.512353}, interhash = {4149e9d6433c87af9c9552096ad3c6eb}, intrahash = {d66823aadb1049af9de9605a73a7647e}, keywords = {Gauss analysis average communication communication; digital distribution; entropy error high maximum method; methods; moments; performance probability; quadrature rate; rates; ratio; ratios; rule; signal-to-noise statistical statistics; system systems; {MEM}; {SNR};}, lccn = {0002}, month = oct, pages = {11--15}, timestamp = {2013-02-28T11:14:09.000+0100}, title = {{Maximum entropy and average error rates in digital communication systems}}, year = 1994 }