Efficient Data Gathering and Improving Network Lifetime in Wireless Sensor Networks

C. Murali, D. Sabrigiriraj
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引用次数: 1

Abstract

In large-scale wireless sensor networks the data- gathering mechanism to introducing mobility into the network. . We consider the location service in a WSN, where each sensor needs to maintain its location information by 1) frequently updating its location information within its neighboring set of polling points in the network. In the previous work a mobile data collector, for convenience called an M-collector for gathering information from the sensor and send to sink node. M- collector could be a mobile robot or a vehicle equipped with a powerful transceiver and battery, working like a mobile base station and gathering data while moving through the field. An M-collector starts the data-gathering tour periodically from the static data sink, polls each sensor while traversing its transmission range, then directly collects data from the sensor in single-hop communications, and finally transports the data to the static sink. Since data packets are directly gathered without relays and collisions, the lifetime of sensors is expected to be prolonged. In this paper, we mainly focus on the problem of minimizing the length of each data-gathering tour and remove the redundancy for data gathering. We develop a stochastic sequential decision framework to analyze this problem. Under a Markovian mobility model, the location update decision problem is modeled as a Markov Decision Process (MDP). For the work with strict distance/ time and energy constraints, we consider utilizing single and multiple M-collectors and propose a data- gathering algorithm where multiple M-collectors traverse through several shorter subtours concurrently to satisfy the distance/time and energy constraints. To identify the redundancy of data from the sensor using Pearson auto correlated technique. Our proposed system for mobile data gathering scheme can improve the scalability and balance the energy consumption among sensors.
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无线传感器网络中有效的数据采集和提高网络寿命
在大规模无线传感器网络中,数据采集机制将移动性引入网络。我们考虑WSN中的位置服务,其中每个传感器需要通过1)在网络中邻近的轮询点集中频繁更新其位置信息来维护其位置信息。在之前的工作中,为了方便起见,我们将移动数据收集器称为m -收集器,用于从传感器收集信息并发送到汇聚节点。M-收集器可以是一个移动机器人或配备了强大收发器和电池的车辆,像移动基站一样工作,在穿过田野时收集数据。m收集器定期从静态数据接收器开始数据收集之旅,在遍历每个传感器的传输范围时轮询每个传感器,然后以单跳通信方式直接从传感器收集数据,最后将数据传输到静态接收器。由于数据包是直接收集的,没有中继和冲突,因此有望延长传感器的使用寿命。在本文中,我们主要研究最小化每次数据收集的长度和消除数据收集的冗余的问题。我们开发了一个随机顺序决策框架来分析这个问题。在马尔可夫迁移模型下,将位置更新决策问题建模为马尔可夫决策过程。对于具有严格距离/时间和能量约束的工作,我们考虑使用单个和多个m收集器,并提出了一种数据收集算法,其中多个m收集器同时遍历几个较短的子行程以满足距离/时间和能量约束。利用Pearson自相关技术识别传感器数据的冗余度。我们提出的移动数据采集方案可以提高系统的可扩展性,平衡传感器之间的能量消耗。
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