Title :
Noisy Channel Coding via Privacy Amplification and Information Reconciliation
Author :
Renes, Joseph M. ; Renner, Renato
Author_Institution :
Inst. for Theor. Phys., ETH Zurich, Zürich, Switzerland
Abstract :
We show that optimal protocols for noisy channel coding of public or private information over either classical or quantum channels can be directly constructed from two more primitive information-theoretic protocols: privacy amplification and information reconciliation, also known as data compression with side information. We do this in the one-shot scenario of structureless resources, and formulate our results in terms of the smooth min- and max-entropy. In the context of classical information theory, this shows that essentially all two-terminal protocols can be reduced to these two primitives, which are in turn governed by the smooth min- and max-entropies, respectively. In the context of quantum information theory, the recently-established duality of these two protocols means essentially all two-terminal protocols can be constructed using just a single primitive. As an illustration, we show how optimal noisy channel coding protocols can be constructed solely from privacy amplification.
Keywords :
channel coding; data compression; entropy; minimax techniques; protocols; quantum theory; data compression; information reconciliation; max-entropy; min-entropy; optimal noisy channel coding protocols; primitive information-theoretic protocols; privacy amplification; private information; public information; quantum channels; quantum information theory; two-terminal protocols; Channel coding; Decoding; Error probability; Markov processes; Random variables; Channel coding; Slepian-Wolf coding; information reconciliation; privacy amplification; quantum information; smooth entropies;
Journal_Title :
Information Theory, IEEE Transactions on
DOI :
10.1109/TIT.2011.2162226