On a Class of Discrete Memoryless Broadcast Interference Channels
Yuanpeng Liu, Elza Erkip

TL;DR
This paper characterizes the capacity regions of a class of discrete memoryless broadcast interference channels under certain conditions, introducing a new achievable rate region and simplifying it under specific partial order conditions.
Contribution
It derives a general achievable rate region for DM-BICs and simplifies it under two partial order broadcast conditions, also characterizing capacity regions for strong interference scenarios.
Findings
Derived a general achievable rate region using rate splitting, superposition coding, and binning.
Simplified the region under interference-oblivious and interference-cognizant less noisy conditions.
Characterized capacity regions for strong and very strong interference cases.
Abstract
We study a class of discrete memoryless broadcast interference channels (DM-BICs), where one of the broadcast receivers is subject to the interference from a point-to-point transmission. A general achievable rate region based on rate splitting, superposition coding and binning at the broadcast transmitter and rate splitting at the interfering transmitter is derived. Under two partial order broadcast conditions {\em interference-oblivious less noisy} and {\em interference-cognizant less noisy}, a reduced form of is shown to be equivalent to the region based on a simpler scheme that uses only superposition coding at the broadcast transmitter. Furthermore, the capacity regions of DM-BIC under the two partial order broadcast conditions are characterized respectively for the strong and very strong interference conditions.
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Taxonomy
TopicsWireless Communication Security Techniques · Cooperative Communication and Network Coding · Cellular Automata and Applications
