1979
DOI: 10.1002/j.1538-7305.1979.tb02263.x
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On the Structure of Real-Time Source Coders

Abstract: The outputs of a discrete time source with memory are to be encoded ("quantized" or "compressed")

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Cited by 144 publications
(243 citation statements)
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“…Along these lines, for system (1)-(2), if the DMs can agree on a joint beliefs P (x t ∈ ·|I i t , i ∈ L) at every time stage, then the optimal cost that would be achieved under a centralized system could be achieved (see Yüksel and Başar (2013)). As a further important illustrative case, if the problem described in Definition 0.1 is for a realtime estimation problem for a Markov source, then the optimal causal fixed-rate coder minimizing any cost function uses only the last source symbol and the information at the controller's memory, see Witsenhausen (1979). We also note that the optimal design of information channels for optimization under information constraints is a non-convex problem; see Yüksel and Linder (2012) and Yüksel and Başar (2013) for a review of the literature and certain topological properties of the problem.…”
Section: Recommended Readingmentioning
confidence: 99%
“…Along these lines, for system (1)-(2), if the DMs can agree on a joint beliefs P (x t ∈ ·|I i t , i ∈ L) at every time stage, then the optimal cost that would be achieved under a centralized system could be achieved (see Yüksel and Başar (2013)). As a further important illustrative case, if the problem described in Definition 0.1 is for a realtime estimation problem for a Markov source, then the optimal causal fixed-rate coder minimizing any cost function uses only the last source symbol and the information at the controller's memory, see Witsenhausen (1979). We also note that the optimal design of information channels for optimization under information constraints is a non-convex problem; see Yüksel and Linder (2012) and Yüksel and Başar (2013) for a review of the literature and certain topological properties of the problem.…”
Section: Recommended Readingmentioning
confidence: 99%
“…Neuhoff and Gilbert focus on the minimization of entropy rate, as in (5). The work in [13] studied the optimal finite-horizon sequential quantization problem, and showed that the optimal encoder for a k th -order Markov source depends on the last k source symbols and the present state of the decoder's memory (i.e. the history of decoded symbols).…”
Section: B Previous Workmentioning
confidence: 99%
“…There are various structural results for such problems, primarily for control-free sources; see [25,27,49,52,53,58] among others. In the following, we consider the case with control, which have been considered for finite-alphabet source and control action spaces in [51] and [27].…”
Section: Dynamic Channel and Optimal Vector Quantizationmentioning
confidence: 99%
“…In the following, we consider the case with control, which have been considered for finite-alphabet source and control action spaces in [51] and [27]. The result essentially follows from Witsenhausen [53]. Theorem 6.11 [57] For the finite horizon problem, any causal composite quantization policy can be replaced without any loss in performance by one which, at time t = 1, .…”
Section: Dynamic Channel and Optimal Vector Quantizationmentioning
confidence: 99%