Hermes: Hemera Returning Messenger

Alessandro Iarocci, Pasquale Adobbato, Amedeo Lepore, Massimo Mari, Silvia Masi, Giovanni Romeo
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Abstract

A common issue for long-duration balloon flights in the polar area is high bit rate data transferring. Just a few hours after launch balloons are nor reachable with direct radio link, and often satellite links are not fast enough to allow the necessary transfer rate or, simply, too expensive. For this reason, stratospheric balloon borne experiments carry out on-board data recording. Data recorded need to be recovered after termination, which is, sometimes, a slow, difficult and expensive task. Not always it is easy or possible to reach the landing site, especially during the polar winter. The aim of the project is to provide an autonomous glider capable of physically carrying the data from the stratospheric platform to a recovery point on the ground. This can also transport physical objects (like air samples) collected at float or along the flight. We estimate that an electrical motorglider released in the stratosphere can fly for several hundreds of kilometers. The glider is installed on the balloon payload through a remotely controlled release system, and connected with the main computer to receive data and the geographic coordinates of the recovery point. The glider trajectory can be monitored with Iridium SBD (Short Burst Data), and simple commands can be issued as well as using Iridium.

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爱马仕:赫梅拉归来使者
极地地区长时间气球飞行的一个常见问题是高比特率数据传输。仅仅在发射后几个小时,气球就无法通过直接的无线电链路到达,而且卫星链路通常不够快,无法实现必要的传输速率,或者太贵了。为此,平流层气球携带的实验进行了机载数据记录。记录的数据需要在终止后恢复,这有时是一项缓慢、困难和昂贵的任务。到达着陆点并不总是容易或可能的,尤其是在极地冬季。该项目的目的是提供一种能够将数据从平流层平台物理携带到地面恢复点的自主滑翔机。这也可以运输漂浮物或飞行途中收集的物理物体(如空气样本)。我们估计,在平流层释放的电动滑翔机可以飞行数百公里。滑翔机通过遥控释放系统安装在气球有效载荷上,并与主计算机相连,以接收数据和回收点的地理坐标。滑翔机的轨迹可以用铱SBD(Short Burst Data)监测,也可以使用铱发出简单的命令。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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