Distance distribution of binary codes and the error probability of decoding
Alexander Barg, Andrew McGregor
Abstract
We address the problem of bounding below the probability of error under maximum likelihood decoding of a binary code with a known distance distribution used on a binary symmetric channel. An improved upper bound is given for the maximum attainable exponent of this probability (the reliability function of the channel). In particular, we prove that the ``random coding exponent'' is the true value of the channel reliability for code rate R in some interval immediately below the critical rate of the channel. An analogous result is obtained for the Gaussian channel.
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