CADC: Congestion Aware Duty Cycle mechanism a simulation evaluation

V. Michopoulos, G. Oikonomou, I. Phillips, L. Guan
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引用次数: 1

Abstract

In WSNs idle listening is a major source of energy consumption. Devices can maximise battery, and hence network, lifetime by keeping their radio transceivers off when not needed. We propose CADC, a new Congestion Aware Duty Cycle (DC) MAC protocol, for 6LoWPANs. This protocol uses a new mechanism for the adaptation of the Radio Duty Cycle (RDC), that reacts quickly to changing traffic loads and patterns. CADC is independent of network topology, operating protocols and applications and does not require any clock synchronisation between the nodes. Through simulation, we highlight that in static duty cycle MACs there is always a trade-off between energy-efficiency and performance leading to increased energy consumption and low throughput in certain networks. Additionally, it is shown that dynamic protocols can overcome the constraints observed in static DC MACs. CADC outperforms other previously proposed static and dynamic duty cycle protocols in terms of energy consumption, packet loss and goodput while it achieves competitive delay times.
拥塞感知占空比机制的仿真评估
在无线传感器网络中,空闲侦听是能耗的主要来源。通过在不需要的时候关闭无线电收发器,设备可以最大限度地延长电池寿命,从而延长网络寿命。我们提出了一种新的用于6lowpan的拥塞感知占空比(DC) MAC协议CADC。该协议使用了一种新的机制来适应无线电占空比(RDC),该机制可以快速响应不断变化的流量负载和模式。CADC独立于网络拓扑、操作协议和应用程序,不需要在节点之间进行时钟同步。通过仿真,我们强调在静态占空比mac中,总是存在能量效率和性能之间的权衡,导致某些网络中的能量消耗增加和吞吐量降低。此外,动态协议可以克服静态DC mac中观察到的约束。CADC在能耗、丢包和good - put方面优于其他先前提出的静态和动态占空比协议,同时实现竞争性延迟时间。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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