Channel-quality-aware multihop broadcast for asynchronous multi-channel wireless sensor networks

In this paper, we propose Multi-channel EMBA ( M-EMBA ), efficient multihop broadcast for asynchronous multi-channel wireless sensor networks. Our scheme employs two channel-quality-aware forwarding policies of improved forwarder’s guidance and fast forwarding to improve multihop broadcast performan...

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Veröffentlicht in:Wireless networks 2016-10, Vol.22 (7), p.2143-2158
Hauptverfasser: Jang, Ingook, Pyeon, Dohoo, Yoon, Hyunsoo, Kim, Dongwook
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container_end_page 2158
container_issue 7
container_start_page 2143
container_title Wireless networks
container_volume 22
creator Jang, Ingook
Pyeon, Dohoo
Yoon, Hyunsoo
Kim, Dongwook
description In this paper, we propose Multi-channel EMBA ( M-EMBA ), efficient multihop broadcast for asynchronous multi-channel wireless sensor networks. Our scheme employs two channel-quality-aware forwarding policies of improved forwarder’s guidance and fast forwarding to improve multihop broadcast performance. The improved forwarder’s guidance allows forwarders to transmit broadcast messages with guidance to their receivers through channels with good quality. The guidance indicates how each receiver should forward the broadcast message to its neighbor nodes. The improved forwarder’s guidance tremendously reduces redundant transmissions and collisions. Fast forwarding allows adjacent forwarders to send their broadcast messages simultaneously through different channels that have good quality, which helps to reduce multihop broadcast latency and improve multi-channel broadcast utility. In this work, we evaluate the multihop broadcast performance of M-EMBA through theoretical analysis of the system design and empirical simulation-based analysis. We implement M-EMBA in ns-2 and compare it with the broadcast schemes of ARM, EM-MAC, and MuchMAC. The performance results show that M-EMBA outperforms these protocols in both light and heavy network traffic. M-EMBA reduces message cost in terms of goodput, total bytes transmitted, as well as broadcast redundancy and collision. M-EMBA also achieves a high broadcast success ratio and low multihop broadcast latency. Finally, M-EMBA significantly improves energy efficiency by reducing average duty cycle.
doi_str_mv 10.1007/s11276-015-1088-8
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subjects Access control
Analysis
Broadcasting
Channels
Collisions
Communications Engineering
Computer Communication Networks
Efficiency
Electrical Engineering
Engineering
IT in Business
Messages
Networks
Performance evaluation
Policies
Protocol
Receivers
Remote sensors
Sensors
Simulation
Studies
Systems design
Wireless networks
title Channel-quality-aware multihop broadcast for asynchronous multi-channel wireless sensor networks
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