DocumentCode
266638
Title
Two-way relaying networks with wireless power transfer: Policies design and throughput analysis
Author
Yuanwei Liu ; Lifeng Wang ; Elkashlan, Maged ; Duong, Trung Q. ; Nallanathan, Arumugam
Author_Institution
Queen Mary, Univ. of London, London, UK
fYear
2014
fDate
8-12 Dec. 2014
Firstpage
4030
Lastpage
4035
Abstract
This paper exploits an amplify-and-forward (AF) two-way relaying network (TWRN), where an energy constrained relay node harvests energy with wireless power transfer. Two bidirectional protocols, multiple access broadcast (MABC) protocol and time division broadcast (TDBC) protocol, are considered. Three wireless power transfer policies, namely, dual-source (DS) power transfer; single-fixed-source (SFS) power transfer; and single-best-source (SBS) power transfer are proposed and well-designed based on time switching receiver architecture. We derive analytical expressions to determine the throughput both for delay-limited transmission and delay-tolerant transmission. Numerical results corroborate our analysis and show that MABC protocol achieves a higher throughput than TDBC protocol. An important observation is that SBS policy offers a good tradeoff between throughput and power.
Keywords
access protocols; amplify and forward communication; broadcast communication; delay tolerant networks; energy harvesting; inductive power transmission; radio receivers; relay networks (telecommunication); switching networks; AF network; DS power transfer; MABC protocol; SBS power transfer; SFS power transfer; TDBC protocol; TWRN; amplify-and-forward network; bidirectional protocol; delay-limited transmission; delay-tolerant transmission; dual-source power transfer; energy constrained relay node; energy harvesting; multiple access broadcast protocol; single-best-source power transfer; single-fixed-source power transfer; time division broadcast protocol; time switching receiver architecture; two-way relaying network; wireless power transfer; IP networks; Protocols; Relays; Scattering; Signal to noise ratio; Throughput; Wireless communication;
fLanguage
English
Publisher
ieee
Conference_Titel
Global Communications Conference (GLOBECOM), 2014 IEEE
Conference_Location
Austin, TX
Type
conf
DOI
10.1109/GLOCOM.2014.7037438
Filename
7037438
Link To Document