An end-to-end channel allocation scheme for a wireless mesh network

SUMMARY Co‐channel interference seriously influences the throughput of a wireless mesh network. This study proposes an end‐to‐end channel allocation scheme (EECAS) that extends the radio‐frequency‐slot method to minimize co‐channel interference. The EECAS first separates the transmission and recepti...

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Published inInternational journal of communication systems Vol. 27; no. 12; pp. 4407 - 4429
Main Authors Tsao, Shiao-Li, Su, Jiun-Jang, Huang, Kuei-Li, Shih, Yung-Chien, Tseng, Chien-Chao
Format Journal Article
LanguageEnglish
Published Chichester Blackwell Publishing Ltd 01.12.2014
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Abstract SUMMARY Co‐channel interference seriously influences the throughput of a wireless mesh network. This study proposes an end‐to‐end channel allocation scheme (EECAS) that extends the radio‐frequency‐slot method to minimize co‐channel interference. The EECAS first separates the transmission and reception of packets into two channels. This scheme can then classify the state of each radio‐frequency‐slot as transmitting, receiving, interfered, free, or parity. A node that initiates a communication session with a quality of service requirement can propagate a channel allocation request along the communication path to the destination. By checking the channel state, the EECAS can determine feasible radio‐frequency‐slot allocations for the end‐to‐end path. The simulation results in this study demonstrate that the proposed approach performs well in intra‐mesh and inter‐mesh communications, and it outperforms previous channel allocation schemes in end‐to‐end throughput. Copyright © 2013 John Wiley & Sons, Ltd. This study proposes an end‐to‐end channel allocation scheme that a node can initiate a communication session with a quality of service requirement and propagate a channel allocation request along the communication path to the destination. By checking the channel state, the end‐to‐end channel allocation scheme can determine feasible radio‐frequency‐slot allocations for the end‐to‐end path. The simulation results demonstrate that the proposed approach performs well in intra‐mesh and inter‐mesh communications.
AbstractList Co-channel interference seriously influences the throughput of a wireless mesh network. This study proposes an end-to-end channel allocation scheme (EECAS) that extends the radio-frequency-slot method to minimize co-channel interference. The EECAS first separates the transmission and reception of packets into two channels. This scheme can then classify the state of each radio-frequency-slot as transmitting, receiving, interfered, free, or parity. A node that initiates a communication session with a quality of service requirement can propagate a channel allocation request along the communication path to the destination. By checking the channel state, the EECAS can determine feasible radio-frequency-slot allocations for the end-to-end path. The simulation results in this study demonstrate that the proposed approach performs well in intra-mesh and inter-mesh communications, and it outperforms previous channel allocation schemes in end-to-end throughput. Copyright copyright 2013 John Wiley & Sons, Ltd. This study proposes an end-to-end channel allocation scheme that a node can initiate a communication session with a quality of service requirement and propagate a channel allocation request along the communication path to the destination. By checking the channel state, the end-to-end channel allocation scheme can determine feasible radio-frequency-slot allocations for the end-to-end path. The simulation results demonstrate that the proposed approach performs well in intra-mesh and inter-mesh communications.
SUMMARY Co-channel interference seriously influences the throughput of a wireless mesh network. This study proposes an end-to-end channel allocation scheme (EECAS) that extends the radio-frequency-slot method to minimize co-channel interference. The EECAS first separates the transmission and reception of packets into two channels. This scheme can then classify the state of each radio-frequency-slot as transmitting, receiving, interfered, free, or parity. A node that initiates a communication session with a quality of service requirement can propagate a channel allocation request along the communication path to the destination. By checking the channel state, the EECAS can determine feasible radio-frequency-slot allocations for the end-to-end path. The simulation results in this study demonstrate that the proposed approach performs well in intra-mesh and inter-mesh communications, and it outperforms previous channel allocation schemes in end-to-end throughput. Copyright © 2013 John Wiley & Sons, Ltd.
SUMMARY Co‐channel interference seriously influences the throughput of a wireless mesh network. This study proposes an end‐to‐end channel allocation scheme (EECAS) that extends the radio‐frequency‐slot method to minimize co‐channel interference. The EECAS first separates the transmission and reception of packets into two channels. This scheme can then classify the state of each radio‐frequency‐slot as transmitting, receiving, interfered, free, or parity. A node that initiates a communication session with a quality of service requirement can propagate a channel allocation request along the communication path to the destination. By checking the channel state, the EECAS can determine feasible radio‐frequency‐slot allocations for the end‐to‐end path. The simulation results in this study demonstrate that the proposed approach performs well in intra‐mesh and inter‐mesh communications, and it outperforms previous channel allocation schemes in end‐to‐end throughput. Copyright © 2013 John Wiley & Sons, Ltd.
SUMMARY Co‐channel interference seriously influences the throughput of a wireless mesh network. This study proposes an end‐to‐end channel allocation scheme (EECAS) that extends the radio‐frequency‐slot method to minimize co‐channel interference. The EECAS first separates the transmission and reception of packets into two channels. This scheme can then classify the state of each radio‐frequency‐slot as transmitting, receiving, interfered, free, or parity. A node that initiates a communication session with a quality of service requirement can propagate a channel allocation request along the communication path to the destination. By checking the channel state, the EECAS can determine feasible radio‐frequency‐slot allocations for the end‐to‐end path. The simulation results in this study demonstrate that the proposed approach performs well in intra‐mesh and inter‐mesh communications, and it outperforms previous channel allocation schemes in end‐to‐end throughput. Copyright © 2013 John Wiley & Sons, Ltd. This study proposes an end‐to‐end channel allocation scheme that a node can initiate a communication session with a quality of service requirement and propagate a channel allocation request along the communication path to the destination. By checking the channel state, the end‐to‐end channel allocation scheme can determine feasible radio‐frequency‐slot allocations for the end‐to‐end path. The simulation results demonstrate that the proposed approach performs well in intra‐mesh and inter‐mesh communications.
Author Tsao, Shiao-Li
Su, Jiun-Jang
Shih, Yung-Chien
Tseng, Chien-Chao
Huang, Kuei-Li
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  organization: Department of Computer Science, National Chiao Tung University, Hsinchu, Taiwan
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Snippet SUMMARY Co‐channel interference seriously influences the throughput of a wireless mesh network. This study proposes an end‐to‐end channel allocation scheme...
SUMMARY Co-channel interference seriously influences the throughput of a wireless mesh network. This study proposes an end-to-end channel allocation scheme...
Co-channel interference seriously influences the throughput of a wireless mesh network. This study proposes an end-to-end channel allocation scheme (EECAS)...
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StartPage 4407
SubjectTerms Allocations
channel allocation
Channels
co-channel interference
Finite element method
Interference
multi-radio multi-channel
Networks
Simulation
Transmission
Wireless communication
wireless mesh network
Title An end-to-end channel allocation scheme for a wireless mesh network
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