移动传感器辅助现场覆盖

Dan Wang, Jiangchuan Liu, Qian Zhang
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引用次数: 9

摘要

在许多传感器网络应用中,提供现场覆盖是一项关键任务。在静态传感器分布不均匀的情况下,通常难以实现具有可接受网络寿命的高质量覆盖。幸运的是,嵌入式和机器人系统的最新进展使移动传感器成为可能,我们建议将一小部分移动传感器用于具有成本效益的现场覆盖解决方案。然而,在这样一个静态和移动传感器的混合网络中,有一系列的基本问题需要回答:(1)给定预期的覆盖质量和系统寿命,应该部署多少移动传感器?(2)每种传感器的必要覆盖贡献是什么?(3)为了达到期望的覆盖贡献,传感器应该采用什么样的工作和移动模式?在本文中,我们对这些问题进行了分析研究,并得出了一个实用的系统设计结果。具体来说,我们提出了一种计算不同类型传感器贡献的最优算法,充分利用了移动传感器的潜力,使网络寿命最大化。然后,我们提出了移动传感器的随机游走模型。该模型以非常低的控制开销分布。它的参数可以微调,以匹配不同的移动传感器的移动能力和广泛的应用需求。然后引入节点协作方案,进一步提高系统性能。我们通过分析和仿真证明,在我们的移动辅助设计中,一小组移动传感器可以有效地解决静态传感器分布不均匀的问题,显著提高覆盖质量。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
On mobile sensor assisted field coverage
Providing field coverage is a key task in many sensor network applications. With unevenly distributed static sensors, quality coverage with acceptable network lifetime is often difficult to achieve. Fortunately, recent advances on embedded and robotic systems make mobile sensors possible, and we suggest that a small set of mobile sensors can be leveraged toward a cost-effective solution for field coverage. There are, however, a series of fundamental questions to be answered in such a hybrid network of static and mobile sensors: (1) Given the expected coverage quality and system lifetime, how many mobile sensors should be deployed? (2) What are the necessary coverage contributions from each type of sensors? (3) What working and moving patterns should the sensors adopt to achieve the desired coverage contributions? In this article, we offer an analytical study on these problems, and the results lead to a practical system design. Specifically, we present an optimal algorithm for calculating the contributions from different types of sensors, which fully exploits the potentials of the mobile sensors and maximizes the network lifetime. We then present a random walk model for the mobile sensors. The model is distributed with very low control overhead. Its parameters can be fine-tuned to match the moving capability of different mobile sensors and the demands from a broad spectrum of applications. A node collaboration scheme is then introduced to further enhance the system performance. We demonstrate through analysis and simulation that, in our mobile assisted design, a small set of mobile sensors can effectively address the uneven distribution of the static sensors and significantly improve the coverage quality.
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