LEB-MAC:用于能量收集供电无线传感器网络的负载和能量平衡MAC协议

Huey-Ing Liu, Wen He, Winston K.G. Seah
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引用次数: 24

摘要

来自太阳能、振动、热和风能的环境能量为传感器提供了替代能源,并延长了传统上由电池供电的无线传感器网络的使用寿命。本文旨在从中继、调度和介质访问控制三个方面提高能量收集供电无线传感器网络的性能。为了更好地适应能量收集的特点,在能量收集供电的无线传感器网络中,首选异步接收器发起的占空循环方法。这减少了发送器的占空比,并根据传感器的能量水平调节活动和睡眠间隔。当节点电量耗尽并需要时间充电时,网络就会出现漏洞或空洞,迫使数据包通过其他路径(如绕路)传输。提出的中继策略旨在根据节点的能量收集特性,通过平衡网络负载来防止漏洞。这是基于接收方可用性调度传输的异步占空循环的自然结果。仿真结果表明,该方案在发送方占空比、端到端延迟和传输比等方面都优于其他协议,特别是在其他协议失效的困难条件下。
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LEB-MAC: Load and energy balancing MAC protocol for energy harvesting powered wireless sensor networks
Ambient energy from solar, vibration, heat and wind provide alternative energy sources to power sensors and extend the lifetime of wireless sensor networks which have traditionally been powered by batteries. This paper aims to enhance the performance of energy harvesting powered wireless sensor networks in three aspects: relaying, scheduling, and medium access control. To better adapt to the characteristics of energy harvesting, an asynchronous receiver-initiated duty-cycling approach is preferred in energy harvesting powered wireless sensor networks. This reduces the duty cycle of senders, and regulates the active and sleep intervals according to the energy levels of sensors. When nodes run out of power and need time to recharge, network holes or voids develop, forcing data packets to be routed via other paths, like detours. The proposed relaying strategy aims to prevent holes by balancing the load across the network according to nodes' energy harvesting characteristics. This is a natural consequence of the asynchronous duty cycling by scheduling transmission based on the receiver's availability. The simulation results show that our scheme outperforms in terms of sender duty cycle, end-to-end delay and delivery ratio, especially in challenged conditions where other protocols fail.
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