The Capacity of Finite-State Markov Channels With Feedback
Jun Chen, Thomas Berger
Abstract
Jun Chen, Thomas Berger
Abstract
We consider a class of finite-state Markov channels with feedback. We first introduce a simplified equivalent channel model, and then construct the optimal stationary and nonstationary input processes that maximize the long-term directed mutual information. Furthermore, we give a sufficient condition under which the channel's Shannon capacity can be achieved by a stationary input process. The corresponding converse coding theorem and direct coding theorem are proved.
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We consider a class of finite-state Markov channels with feedback. We first introduce a simplified equivalent channel model, and then construct the optimal stationary and nonstationary input processes that maximize the long-term directed mutual information. Furthermore, we give a sufficient condition under which the channel's Shannon capacity can be achieved by a stationary input process. The corresponding converse coding theorem and direct coding theorem are proved.
Key concepts: Converse, Markov process, Markov chain, Channel capacity, Mathematics, Mutual information, Finite state, Coding (social sciences)