Secure Data Collection Using Autonomous Unmanned Aerial Vehicles

John Bowman, J. Brooks, Chandler Lopez, A. Marcos-Martinez, A. Salman
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引用次数: 4

Abstract

In recent years, drones have become a practical solution for data collection in both academic and commercial fields. The use of drones allows users to collect data without disrupting the environment and keep safe from dangerous areas such as: military operations and surveillance in locations where maneuverability is difficult. The different data collected via unmanned aerial vehicles include field work GPS coordinates, environmental quality measurements, photographs/video and much more. The data collected by unmanned aerial vehicles may contain sensitive information, leading to an increased value on the security of that data. Without proper security services, information may be used in unforeseen, or even malicious ways, such as planting false information or leaking particularly sensitive data. In this paper we introduce a secure data collection method from wireless sensor nodes using autonomous unmanned aerial vehicles. We built a sensor node with multiple sensors designed to collect data for rainfall, temperature, humidity, ultra violet index, and soil moisture. Along with another sensor node with sensors used to collect data from water, we created a wireless sensor network where the sensor data was collected using an unmanned aerial vehicle. The sensor nodes collected environmental data through several sensors which are securely stored in the sensor node itself. The collected data was then transferred securely to a central node mounted on a DJI F450 Flamewheel quad-copter, which was loaded with a predetermined flight path via Mission Planner to perform the autonomous flight. Aside from previous environmental focus, technical improvements were made such as adding a solar battery to the sensor node and implementing energy efficiency in the nodes’ systems while the drone collected data autonomously during a predetermined flight path. This project served as a proof-of-concept that communication with a wireless sensor node has the capability to be deployed for data collection in remote areas efficiently and effectively while maintaining a low power and energy consumption.
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使用自主无人驾驶飞行器安全收集数据
近年来,无人机已成为学术和商业领域数据收集的实用解决方案。无人机的使用允许用户在不破坏环境的情况下收集数据,并确保安全远离危险区域,例如:军事行动和在机动性困难的地方进行监视。通过无人驾驶飞行器收集的不同数据包括实地工作GPS坐标、环境质量测量、照片/视频等等。无人机收集的数据可能包含敏感信息,从而增加了数据安全性的价值。如果没有适当的安全服务,信息可能会以不可预见的甚至恶意的方式被使用,例如植入虚假信息或泄露特别敏感的数据。本文介绍了一种利用自主无人机从无线传感器节点安全采集数据的方法。我们构建了一个包含多个传感器的传感器节点,用于收集降雨量、温度、湿度、紫外线指数和土壤湿度等数据。与另一个用于从水中收集数据的传感器节点一起,我们创建了一个无线传感器网络,其中使用无人驾驶飞行器收集传感器数据。传感器节点通过几个传感器收集环境数据,这些传感器安全地存储在传感器节点本身。然后,收集到的数据被安全地传输到安装在大疆F450火轮四旋翼机上的中心节点,该节点通过任务规划器加载了预定的飞行路径,以执行自主飞行。除了之前对环境的关注之外,无人机还进行了技术改进,例如在传感器节点上增加了太阳能电池,并在节点系统中实现了能源效率,同时无人机在预定的飞行路径上自主收集数据。该项目作为概念验证,与无线传感器节点的通信能够在保持低功耗和低能耗的同时,高效地部署在偏远地区进行数据收集。
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