Improving Fairness and Convergence Efficiency of TCP Traffic in Multi-hop Wireless Networks

被引:0
作者
M. Joseph Auxilius Jude
V. C. Diniesh
M. Shivaranjani
S. Madhumitha
V. Karthik Balaji
M. Myvizhi
机构
[1] Kongu Engineering College,Self Organised Networking Group (SONG), Vinton Network Lab, Department of Electronics and Communication Engineering
[2] Velalar College of Engineering and Technology,Department of Electronics and Communication Engineering
来源
Wireless Personal Communications | 2021年 / 121卷
关键词
Multi-hop radio networks (MRN); Transmission control protocol (TCP); Explicit congestion notification (ECN); Roundtrip time (RTT) fairness; Congestion avoidance;
D O I
暂无
中图分类号
学科分类号
摘要
Last-mile telecommunication networks witnessed phenomenal growth in using multi-hop wireless technologies to improve capacity and radio coverage for a longer extent. The penetration of wireless internet in last-mile multi-hop networks has significantly altered our routine lifestyle. Most internet applications heavily rely on transmission control protocol (TCP) to reliably deliver data packets between the sender-receiver processes. However, the fairness and steady-state convergence performance of TCP data traffic in the multi-hop radio networks (MRN) remain plagued by spurious rate reduction, flat rate cut, and low convergence limitations. The feedback-assisted improved recovery (FAIR) algorithm proposed in this article adopts three strategies to strengthen TCP's performance in the MRN. Initiate the congestion avoidance based on intermediate node queue accumulation, TCP's growth-based proportionate rate reduction method, and a rapid recovery mechanism. The MRN simulation experiments decisively demonstrate the substantial improvement in steady-state convergence time, flow fairness, throughput, and packet latency performances of the FAIR algorithm against RFC 6582, NRT, and OQS approaches.
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页码:459 / 485
页数:26
相关论文
共 123 条
[1]  
Huang C(2019)Virtual mesh networking for achieving multi-hop D2D communications in 5G networks Ad Hoc Networks 94 2-11
[2]  
Zhai B(2019)Leader election in multi-hop radio networks Theoretical Computer Science 792 677-722
[3]  
Tang A(2018)A comprehensive survey on multi-hop wireless networks: Milestones, changing trends and concomitant challenges Wireless Personal Communications 101 5258-5272
[4]  
Wang X(2020)Towards optimal convergecast in wireless ad hoc networks Ad Hoc Networks 107 30560-30574
[5]  
Czumaj A(2017)Inter-operator resource management for millimeter wave multi-hop backhaul networks IEEE Transactions on Wireless Communications 16 3510-3541
[6]  
Davies P(2020)Relay probing for millimeter wave multi-hop D2D networks IEEE Access 8 204-51
[7]  
Khanna G(2018)A survey of secure routing protocols in multi-hop cellular networks IEEE Communications Surveys & Tutorials 20 40-94
[8]  
Chaturvedi SK(2018)Performance analysis of millimeter-wave multi-hop machine-to-machine networks based on hop distance statistics Sensors 18 86-83
[9]  
Araujo F(2017)TCP performance evaluation over backpressure-based routing strategies for wireless mesh backhaul in LTE networks Ad Hoc Networks 60 77-367
[10]  
Gomes A(2018)Exploring dscp modification pathologies in the internet Computer Communications 127 324-70