JOURNAL ARTICLE

Multiple-Rendezvous Multichannel MAC Protocol Design for Underwater Sensor Networks

Chih‐Min ChaoYao-Zong WangMing–Wei Lu

Year: 2013 Journal:   IEEE Transactions on Systems Man and Cybernetics Systems Vol: 43 (1)Pages: 128-138   Publisher: Institute of Electrical and Electronics Engineers

Abstract

Compared with traditional terrestrial radio transmissions in wireless sensor networks, the challenges of transmissions in underwater sensor networks (UWSNs) include lower transmission rate, longer delay time, and higher power consumption. In such a circumstance, the negative effects of transmission collisions deteriorate. Most of the existing UWSN medium access control (MAC) protocols handle the collision problem in a single-hop or light-loaded environment. They fail to function effectively in a multihop network consisting of more sensor nodes with heavier traffic loads. Using the concept of cyclic quorum systems, we propose a distributed multiple-rendezvous multichannel MAC protocol, MM-MAC, in this paper to reduce collision probability. The advantages of the proposed protocol are threefold: 1) Only one modem is needed for each node to solve the missing receiver problem which is often encountered in multichannel protocols; 2) multiple sensor node pairs can complete their channel negotiations on different channels simultaneously; and 3) data packets will not be collided by control packets and vice versa. Simulation results verify that our protocol can reduce collision probability significantly which enhances the network performance in a multihop UWSN.

Keywords:
Computer network Computer science Rendezvous Network packet Multiple Access with Collision Avoidance for Wireless Wireless sensor network Media access control Node (physics) Transmission (telecommunications) Channel (broadcasting) Collision Distributed coordination function Real-time computing Wireless network Wireless Routing protocol IEEE 802.11 Engineering Telecommunications Optimized Link State Routing Protocol Computer security

Metrics

47
Cited By
6.65
FWCI (Field Weighted Citation Impact)
35
Refs
0.96
Citation Normalized Percentile
Is in top 1%
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Citation History

Topics

Underwater Vehicles and Communication Systems
Physical Sciences →  Engineering →  Ocean Engineering
Energy Efficient Wireless Sensor Networks
Physical Sciences →  Computer Science →  Computer Networks and Communications
Energy Harvesting in Wireless Networks
Physical Sciences →  Engineering →  Electrical and Electronic Engineering
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