Second-Order Region for Gray-Wyner Network
August 18, 2015 Β· Declared Dead Β· π IEEE Transactions on Information Theory
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Authors
Shun Watanabe
arXiv ID
1508.04227
Category
cs.IT: Information Theory
Citations
35
Venue
IEEE Transactions on Information Theory
Last Checked
6 months ago
Abstract
The coding problem over the Gray-Wyner network is studied from the second-order coding rates perspective. A tilted information density for this network is introduced in the spirit of Kostina-VerdΓΊ, and, under a certain regularity condition, the second-order region is characterized in terms of the variance of this tilted information density and the tangent vector of the first-order region. The second-order region is proved by the type method: the achievability part is proved by the type-covering argument, and the converse part is proved by a refinement of the perturbation approach that was used by Gu-Effros to show the strong converse of the Gray-Wyner network. This is the first instance that the second-order region is characterized for a multi-terminal problem where the characterization of the first-order region involves an auxiliary random variable.
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