Title :
Designing a hexacopter for the collection of atmospheric flow data
Author :
de Boisblanc, Ian ; Dodbele, Nikita ; Kussmann, Lee ; Mukherji, Rahul ; Chestnut, Doug ; Phelps, Stephanie ; Lewin, G.C. ; de Wekker, Stephan
Abstract :
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.
Keywords :
aerospace computing; autonomous aerial vehicles; control engineering computing; control system synthesis; data acquisition; helicopters; humidity control; pressure control; sensors; temperature control; user interfaces; velocity control; wind; UAV; atmospheric flow data collection; autonomous flight controllers; autonomous flying hexacopter; balloon-based measurement systems; communications interface; copter motion; data-collection system; environmental sensors; flight-control system; hexacopter construction; hexacopter design; hexacopter prototyping; hexacopter tuning; local storage; pressure; realtime data flow; relative humidity; sensor performance; temperature; unmanned aerial vehicle; user interface; wind direction; wind speed; Accuracy; Fluid flow measurement; Temperature measurement; Temperature sensors; Wind speed; Atmospheric data; Autonomous flight; Hexacopter; Real-time data visualization;
Conference_Titel :
Systems and Information Engineering Design Symposium (SIEDS), 2014
Conference_Location :
Charlottesville, VA
Print_ISBN :
978-1-4799-4837-6
DOI :
10.1109/SIEDS.2014.6829915