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Atmospheric energy harvesting: use of Doppler Wind Lidars on UAVs to extend mission endurance and enable quiet operations

机译:大气能量收集:在无人机上使用多普勒测风雷达以延长任务承受力并实现安静运行

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摘要

The investigators are developing a system tool that utilizes both pre-flight information and continuous real-time knowledge and description of the state of the atmosphere and atmospheric energetics by an Airborne Doppler Wind Lidar (ADWL) to provide the autonomous guidance for detailed and adaptive flight path planning by UAS and small manned aircraft. This flight planning and control has the potential to reduce mission dependence upon preflight assumptions, extend flight duration and endurance, enable long periods of quiet operations and allow for the optimum self-routing of the aircraft. The ADWL wind data is used in real-time to detect atmospheric energy features such as thermals, waves, wind shear and others. These detected features are then used with an onboard, weather model driven flight control model to adaptively plan a flight path that optimizes energy harvesting with frequent updates on local changes in the opportunities and atmospheric flow characteristics. We have named this package AEORA for the Atmospheric Energy Opportunity Ranking Algorithm (AEORA).
机译:研究人员正在开发一种系统工具,该系统工具利用飞行前信息和连续实时知识以及机载多普勒风激光雷达(ADWL)对大气状态和大气能的描述,为详细和自适应飞行提供自主指导无人机系统和小型载人飞机的路径规划。这种飞行计划和控制措施有可能减少对飞行前假设的任务依赖性,延长飞行时间和耐力,实现长时间的安静运行,并实现飞机的最佳自动路由。实时使用ADWL风数据来检测大气能量特征,例如热量,波浪,风切变等。然后,将这些检测到的特征与机载的,由天气模型驱动的飞行控制模型一起使用,以适应性地规划飞行路径,该飞行路径会通过对机会和大气流特征的局部变化进行频繁更新来优化能量收集。我们将此包命名为AEORA,用于“大气能机会排名算法(AEORA)”。

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