开发、集成、测试和评估美国陆军用于NAVAIR箭无人机的七叶树系统

R. Fischer, B. Kennedy, Mitch Jones, Jeffrey Walker, D. Muresan, Gregory Baxter, Mark Flood, Brian Follmer, Xiuhong Sun, William Chen, J. Ruby
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引用次数: 6

摘要

“七叶树”高分辨率地理空间收集系统目前正在支持伊拉克和阿富汗境内的行动。七叶树系统最初由美国陆军工程兵团(USACE)、工程师研究与发展中心(ERDC)开发,为战地指挥官提供及时的战术高分辨率地理空间信息。七叶树系统适用于以下领域:情报、监视和侦察(ISR)、制图、变化探测、任务排练、模拟和战场可视化。自2004年11月以来,部署在多个空中平台上的三种不同的七叶树系统为美军提供了连续的地理空间数据交付。进一步的能力将通过集成下一代七叶树组件到无人驾驶飞行器(UAV)来提供。为这项工作选择的无人机是实验性的“箭”无人机系统(UAS)。本文介绍了七叶树光电(EO)和光探测与测距(LIDAR)组件与Arrow平台的物理和系统集成。提出了质量平衡、热分散和组件校准的工程解决方案。描述并讨论了实现仪表控制、图像压缩和数据下行的分布式板载结构。最后给出了理论、实验室和飞行测试结果,并讨论了战术环境下的实现和数据传播。
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Development, integration, testing, and evaluation of the U.S. Army Buckeye System to the NAVAIR Arrow UAV
The Buckeye high-resolution geospatial collection system is currently supporting operations within both Iraq and Afghanistan. The Buckeye system, originally developed by the U.S. Army Corps of Engineers (USACE), Engineer Research and Development Center (ERDC), provides timely tactical high resolution geospatial information to field commanders. The Buckeye system is applicable in the following arenas: intelligence, surveillance, and reconnaissance (ISR), mapping, change detection, mission rehearsal, simulation, and battlefield visualization. Three distinct Buckeye systems hosted on multiple air platforms have provided continuous geospatial data delivery to U.S. Forces since November 2004. Further capability is to be provided by integrating next generation Buckeye components to an Unmanned Aerial Vehicle (UAV). The UAV selected for this effort is the experimental Arrow Unmanned Aerial System (UAS). This paper describes the physical and systems integration of the Buckeye Electro-Optical (EO) and Light Detection and Ranging (LIDAR) components to the Arrow platform. Engineering solutions for mass balancing, thermal dispersion, and component calibration are presented. The distributed on-board architecture which performs instrument control, image compression, and data downlink, is described and discussed. Finally theoretical, laboratory and flight testing results are presented with a discussion on implementation and data dissemination within a tactical environment.
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