气球辅助无人机两级分离法南极平流层气溶胶观测与回样系统

S. Higashino, M. Hayashi, T. Okada, S. Nagasaki, Koichiro Shiraishi, Keiichi Ozuka
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引用次数: 2

摘要

摘要作者开发了一种利用橡胶气球、降落伞和滑翔固定翼无人机(UAV)相结合的南极平流层气溶胶观测和样本回收系统。一个橡胶气球通常能达到20公里到30公里的高度,但是对于设计为低亚音速无人机的无人机来说,从平流层高度直接滑翔回来变得困难,因为在这样的高度很难获得控制系统设计所需的定量气动特性。为了避免无人机控制系统的问题,使观测和样本返回在这样的高海拔可能,采用两级分离的方法被开发和尝试在南极洲。在两级分离方法中,无人机在平流层高度与气球分离后,首先通过降落伞下降到一定高度,此时无人机的飞行控制系统工作正常。然后再分离降落伞,使其自动滑翔回到地面上的释放点。搭载光学粒子计数器和机载气溶胶采样器的无人机于2015年1月24日在南极洲Syowa站附近的S17 (69.028S, 40.093E, 607 m MSL)发射。该系统达到了23公里的高度,无人机成功返回了气溶胶样本。本文详细介绍了采用两级分离方法的无人机系统,包括观测飞行结果,以及对样品的初步观测和分析结果。
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The Antarctic Stratospheric Aerosol Observation and Sample-Return System Using Two-Stage Separation Method of a Balloon-Assisted Unmanned Aerial Vehicle
Abstract. The authors have developed a system for the Antarctic stratospheric aerosol observation and sample-return using the combination of a rubber balloon, a parachute, and a gliding fixed-wing unmanned aerial vehicle (UAV). A rubber balloon can usually reach 20 km to 30 km in altitude, but it becomes difficult for the UAV designed as a low-subsonic UAV to directly glide back from the stratospheric altitudes because the quantitative aerodynamic characteristics necessary for the control system design at such altitudes are difficult to obtain. In order to make the observation and sample-return possible at such higher altitudes while avoiding the problem with the control system of the UAV, the method using the two-stage separation was developed and attempted in Antarctica. In two-stage separation method, the UAV first descends by a parachute after separating from the balloon at stratospheric altitude to a certain altitude wherein the flight control system of the UAV works properly. Then it secondly separates the parachute for autonomous gliding back to the released point on the ground. The UAV in which an optical particle counter and an airborne aerosol sampler were installed was launched on January 24, 2015 from S17 (69.028S, 40.093E, 607 m MSL) near Syowa Station in Antarctica. The system reached 23 km in altitude and the UAV successfully returned aerosol samples. In this paper, the details of the UAV system using the two-stage separation method including the observation flight results, and the preliminary results of the observation and analyses of the samples are shown.
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