Cross-Layer Design for Two-Way Relaying Networks with Multiple Antennas

In this paper, we developed a cross-layer design for two-way relaying (TWR) networks with multiple antennas, where two single antenna source nodes exchange information with the aid of one multiple antenna relay node. The proposed cross-layer design considers adaptive modulation (AM) and space-time b...

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Main Authors: zhuo wu, Lei Wang
Format: Article
Language:English
Published: European Alliance for Innovation (EAI) 2015-10-01
Series:EAI Endorsed Transactions on Cognitive Communications
Subjects:
Online Access:http://eudl.eu/doi/10.4108/icst.mobimedia.2015.259040
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spelling doaj-78658494ade44ce98b4d2cfc89219cfd2020-11-25T02:55:58ZengEuropean Alliance for Innovation (EAI)EAI Endorsed Transactions on Cognitive Communications2313-45342015-10-01131710.4108/icst.mobimedia.2015.259040Cross-Layer Design for Two-Way Relaying Networks with Multiple Antennaszhuo wu0Lei Wang1Third Research Institute of Ministry of Public Safety; zwu@shu.edu.cnThird Research Institute of Ministry of Public SafetyIn this paper, we developed a cross-layer design for two-way relaying (TWR) networks with multiple antennas, where two single antenna source nodes exchange information with the aid of one multiple antenna relay node. The proposed cross-layer design considers adaptive modulation (AM) and space-time block coding (STBC) at the physical layer with an automatic repeat request (ARQ) protocol at the data link layer, in order to maximize the spectral efficiency under specific delay and packet error ratio (PER) constraints. An MMSE-interference cancellation (IC) receiver is employed at the relay node, to remove the interference in the fist phase of the TWR transmission. The transmission mode is updated for each phase of the TWR transmission on a frame-by-frame basis, to match the time-varying channel conditions and exploit the system performance and throughput gain. Simulation results show that retransmission at the data link layer could alleviate rigorous error-control requirements at the physical layer, and thereby allows higher data transmission. As a result, cross-layer design helps to achieve considerable system spectral efficiency gain for TWR networks, compared to those without cross-layer design.http://eudl.eu/doi/10.4108/icst.mobimedia.2015.259040cross-layer designtwo-way relayingmmse-interference cancellationstbc
collection DOAJ
language English
format Article
sources DOAJ
author zhuo wu
Lei Wang
spellingShingle zhuo wu
Lei Wang
Cross-Layer Design for Two-Way Relaying Networks with Multiple Antennas
EAI Endorsed Transactions on Cognitive Communications
cross-layer design
two-way relaying
mmse-interference cancellation
stbc
author_facet zhuo wu
Lei Wang
author_sort zhuo wu
title Cross-Layer Design for Two-Way Relaying Networks with Multiple Antennas
title_short Cross-Layer Design for Two-Way Relaying Networks with Multiple Antennas
title_full Cross-Layer Design for Two-Way Relaying Networks with Multiple Antennas
title_fullStr Cross-Layer Design for Two-Way Relaying Networks with Multiple Antennas
title_full_unstemmed Cross-Layer Design for Two-Way Relaying Networks with Multiple Antennas
title_sort cross-layer design for two-way relaying networks with multiple antennas
publisher European Alliance for Innovation (EAI)
series EAI Endorsed Transactions on Cognitive Communications
issn 2313-4534
publishDate 2015-10-01
description In this paper, we developed a cross-layer design for two-way relaying (TWR) networks with multiple antennas, where two single antenna source nodes exchange information with the aid of one multiple antenna relay node. The proposed cross-layer design considers adaptive modulation (AM) and space-time block coding (STBC) at the physical layer with an automatic repeat request (ARQ) protocol at the data link layer, in order to maximize the spectral efficiency under specific delay and packet error ratio (PER) constraints. An MMSE-interference cancellation (IC) receiver is employed at the relay node, to remove the interference in the fist phase of the TWR transmission. The transmission mode is updated for each phase of the TWR transmission on a frame-by-frame basis, to match the time-varying channel conditions and exploit the system performance and throughput gain. Simulation results show that retransmission at the data link layer could alleviate rigorous error-control requirements at the physical layer, and thereby allows higher data transmission. As a result, cross-layer design helps to achieve considerable system spectral efficiency gain for TWR networks, compared to those without cross-layer design.
topic cross-layer design
two-way relaying
mmse-interference cancellation
stbc
url http://eudl.eu/doi/10.4108/icst.mobimedia.2015.259040
work_keys_str_mv AT zhuowu crosslayerdesignfortwowayrelayingnetworkswithmultipleantennas
AT leiwang crosslayerdesignfortwowayrelayingnetworkswithmultipleantennas
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