A New Capacity-Approaching Scheme for General 1-to-K Broadcast Packet Erasure Channels With ACK/NACK

The capacity region of 1-to- K broadcast packet erasure channels with ACK/NACK is well known for some scenarios, e.g., {K}\leq 3 , etc. However, existing achievability schemes either require knowing the target rate \vec {{R}} in advance, and/or have a complicated description of the achievable ra...

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Veröffentlicht in:IEEE transactions on information theory 2020-05, Vol.66 (5), p.3000-3025
Hauptverfasser: Chang, Chih-Hua, Wang, Chih-Chun
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description The capacity region of 1-to- K broadcast packet erasure channels with ACK/NACK is well known for some scenarios, e.g., {K}\leq 3 , etc. However, existing achievability schemes either require knowing the target rate \vec {{R}} in advance, and/or have a complicated description of the achievable rate region that is difficult to prove whether it matches the capacity or not. This work proposes a new network coding scheme with the following features: (i) its achievable rate region is identical to the capacity region for all the scenarios in which the capacity is known; (ii) its achievable rate region is much more tractable and has been used to derive new capacity rate vectors; (iii) it employs sequential encoding that naturally handles dynamic packet arrivals; (iv) it automatically adapts to unknown packet arrival rates \vec {{R}} ; (v) it is based on \mathsf {GF}({q}) with {q}\geq {K} . In addition to analytically characterizing the achievable rate region of the proposed scheme, numerical simulation has been used to verify its queue length and delay performance.
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subjects Broadcast capacity
Channels
Complexity theory
Computer simulation
Delays
Encoding
Network coding
packet erasure channel
Queueing analysis
Queues
Stability analysis
stability region
title A New Capacity-Approaching Scheme for General 1-to-K Broadcast Packet Erasure Channels With ACK/NACK
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