密集车辆自组网无人机辅助协同路由方案

Sadia Ayub, Adnan Shujah, Sheikh Muhammad Muneeb Hamid Rasheed, T. Zafar, Arsal Bilal
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引用次数: 0

摘要

智能交通系统(ITS)必须保持其服务的稳定性和主动性。车辆自组织网络(vanet)发挥着至关重要的作用,提供了一个高度动态的环境,其中紧凑节点到目标的不间断信息传播是一个关键策略。目前,数据传播技术使用基于单无线电的设备来缓解网络性能下降。然而,由于频谱的不完全利用,它们最终导致吞吐量下降和端到端(ETE)延迟增加。为了确保频谱的有效利用,已经提出了从其他信道寻求支持的方法,这些方法被称为多信道双无线电。然而,由于同频带的跨信道干扰,网络性能下降。为此,设计了一种无人机(UCRS)辅助的协同路由方案,其中VANET由飞行自组网(FANET)辅助。UCRS允许中间车辆使用复合路由度量选择最合适的节点作为下一跳。在UCRS中,每个节点创建一个称为联合节点表(Allied node table, ANT)的表,其中包含前面区域的车辆。在ANT中可用的几个节点中,选择最佳节点作为端到端(ETE)路由的一部分,将数据流量转发到目的地。在数据通信过程中,如果连接中断,UCRS尝试本地修复,最多两跳;如果航线恢复失败,则执行无人机协助。使用网络模拟器ns-2.31进行性能评估。结果表明,在大多数情况下,与U2RV和AODV相比,UCRS在PDR、ETE延迟和控制消息开销方面取得了更好的性能。结果表明,与U2RV相比,UCRS在控制消息开销方面提高了22%,与AODV相比提高了33%。同样,与U2RV相比,UCRS在ETE延迟方面提高了23%,与AODV相比提高了30%。最后但并非最不重要的是,与U2RV相比,PDR增长了14.5%,与AODV相比增长了28%。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Dense Vehicular Ad hoc Network UAV Assisted Cooperative Routing Scheme
Intelligent transportation system (ITS) has to keep its services stable and active. Vehicular Ad hoc networks (VANETs) play a crucial part and provide a highly dynamic environment, where uninterrupted information propagation with compact nodes to their purported target is a key strategy. Currently, the data propagation techniques use devices based on single radio to mitigate network performance degradation. However, due to incomplete utilization of the spectrum, they end up with decreased throughput and increased end-to-end (ETE) delay. To ensure efficient use of the spectrum, methods that seek support from other channels have been proposed and are known as multi-channel dual radio-based. However, the performance of the network is degraded because of the same band cross-channel interference. That's why, a cooperative routing scheme assisted by UAV (UCRS) is devised, and here VANET is assisted by a Flying ad hoc network (FANET). UCRS allows intermediate vehicles to choose the most suitable node as the next hop using a composite routing metric. In UCRS each node creates a table called an Allied Node Table (ANT) comprising the vehicles in the ahead zone. Among several nodes available in ANT, the best node is chosen to be part of an End-to-End (ETE) route to forward data traffic to the destination. In case of interruption in connection during communication of data, local repair is attempted by UCRS up to two hops; in case route recovery failure occurs then UAV assistance is executed. The network simulator ns-2.31 is used to assess performance evaluation. The results reveal that UCRS achieved better performance compared to U2RV and AODV, in most of the scenarios with regard to the PDR, ETE delay, and control message overhead. The results show that UCRS achieved a 22% improvement in control message overhead as compared to U2RV and 33% as compared to AODV. Similarly, UCRS has achieved a 23% improvement in ETE Delay as compared to U2RV and 30% as compared to AODV. Last but not least, PDR has increased by 14.5% as compared to U2RV and 28% as compared to AODV.
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