2010
DOI: 10.1109/tit.2009.2039167
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Communication Over Finite-Field Matrix Channels

Abstract: This paper is motivated by the problem of error control in network coding when errors are introduced in a random fashion (rather than chosen by an adversary). An additive-multiplicative matrix channel is considered as a model for random network coding. The model assumes that n packets of length m are transmitted over the network, and up to t erroneous packets are randomly chosen and injected into the network. Upper and lower bounds on capacity are obtained for any channel parameters, and asymptotic expressions… Show more

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Cited by 64 publications
(129 citation statements)
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References 17 publications
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“…In the first case we extend the syndrome decoding method to correct Hamming errors for index codes given in [11] to the ICCSI case. In the second, we show that the simple, low-complexity strategy for additive matrix channels given in [35] can be applied to correct rank-metric errors, that is to handle error matrices of rank upper bounded by some δ.…”
Section: A Our Contributionmentioning
confidence: 99%
See 1 more Smart Citation
“…In the first case we extend the syndrome decoding method to correct Hamming errors for index codes given in [11] to the ICCSI case. In the second, we show that the simple, low-complexity strategy for additive matrix channels given in [35] can be applied to correct rank-metric errors, that is to handle error matrices of rank upper bounded by some δ.…”
Section: A Our Contributionmentioning
confidence: 99%
“…We furthermore consider the length of an optimal δ-error correcting code for an instance of the ICCSI problem and obtain bounds analogous to those described in [11], both for the Hamming metric and for rank-metric errors. We describe decoding algorithms for both categories of errors based on those given in [11], [35]. …”
mentioning
confidence: 99%
“…The effort of exploiting the network characteristic moves from the network to the transmitter and the receiver, respectively. The idea of linear channel operator (LOC) has been studied by various authors [48,52,53] and has demonstrated to be useful to model a random channel with error control coding properties.…”
Section: Network Error Correctionmentioning
confidence: 99%
“…To study this, we need to calculate the capacity of noncoherent network coding [21], [22], [24], [25].…”
Section: Removing the Coding Vectors: Noncoherent Network Codingmentioning
confidence: 99%