设计用于收集大气流动数据的六旋翼机

Ian de Boisblanc, Nikita Dodbele, L. Kussmann, R. Mukherji, D. Chestnut, S. Phelps, G. Lewin, S. D. De Wekker
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引用次数: 19

摘要

大气中的温度、压力、相对湿度、风速和风向的垂直剖面通常是用安装在自由飞行或系住的气球上的无线电探空仪收集的。当只需要距地面100英尺的数据时,这种方法效率低下。自由飞行的气球和附带的有效载荷漂离发射地点,而且经常无法回收。系绳气球需要大量的氦气,并且随着风力的增加而变得不稳定,而充气气球需要很长一段时间,并且需要一个熟练的团队。该项目的范围是通过创造一种可回收的、通用的、用户友好的无人机(UAV)来消除气球测量系统的不实用性。该项目需要开发一个飞行控制系统、一个数据收集系统以及一个通信和用户界面。飞行控制系统的发展包括自主飞行控制器的研究,随后是六旋翼机的建造、原型设计和调试。创建数据收集系统需要研究环境传感器,并确定直升机运动对传感器性能的影响。所设计的通信接口结合了实时数据流和本地存储。最终产品将是一架自动飞行的六旋翼飞机,它可以在大气层最低1000英尺的地方收集准确的天气相关数据。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Designing a hexacopter for the collection of atmospheric flow data
Vertical profiles of temperature, pressure, relative humidity, wind speed, and wind direction in the atmosphere are typically collected using radiosondes attached to free-flying or tethered balloons. This method is inefficient when data are only required for the first hundred feet above the ground. Free-flying balloons and the attached payload drift away from the launching location and are often not recovered. Tethered balloons require large amounts of helium and become unstable with increased winds, and inflating balloons takes an extended period of time and requires a skilled team. The scope of this project is to eliminate the impracticalities of balloon-based measurement systems by creating a recoverable, versatile, user-friendly unmanned aerial vehicle (UAV). The project requires development of a flight-control system, a data-collection system, and a communications and user interface. The development of the flight-control system involved researching autonomous flight controllers, followed by the construction, prototyping, and tuning of a hexacopter. Creating the data collection system required researching environmental sensors and determining the effects of the copter motion on sensor performance. The designed communications interface incorporated realtime data flow and local storage on the copter. The final product will be an autonomously flying hexacopter which can collect accurate weather-related data within the lowest 1000 feet of the atmosphere.
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