未来无人机FCCs内部冗余及同步挑战

Sebastian Hiergeist, G. Seifert
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引用次数: 4

摘要

随着无人驾驶飞行器(uav)描述航空电子工业的最新趋势,它们也倾向于迁移到民用空域。为了确保这些系统的安全运行,即使在出现故障的情况下,也必须对固有的飞行控制系统(FCS)进行冗余设计。对于较小的无人机系统,冗余还没有得到广泛的应用,而对于更大更复杂的系统,冗余概念通常通过使用专有硬件解决方案来实现。汽车和工业微控制器单元(mcu)为实现一种高效、安全的新型飞行控制计算机(FCC)架构提供了良好的基础,该架构还能够管理FCS的冗余。利用单片机已经提供的接口实现冗余网络,可以大大提高效率和集成密度。因此,对如何减轻MCU相关的安全问题和冗余网络的实现给出了一些指导。此外,实现网络中所有节点之间的紧密同步是每个全职安全关键冗余系统的强制性要求。因此,在所需方法的背景下检查同步,重点关注MCU特定的影响以及如何选择合适的同步算法的挑战。为了证明该设计的可行性,给出了一个示例设计,该示例设计已实现,用于进一步的性能和同步测量。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Internal redundancy in future UAV FCCs and the challenge of synchronization
As Unmanned Aerial Vehicles (UAVs) describe the recent trend in the avionic industry, they also tend to migrate into the civil airspace. To ensure a safe operation of such systems, even in case of faults, a redundant design of the inherent Flight Control System (FCS), is mandatory. For smaller UAV system, redundancy has not found a widespread use yet, whereas for bigger and more complex systems the redundancy concept is usually implemented by using proprietary hardware solutions. Automotive and industrial Microcontroller Units (MCUs) provide a good basis for the implementation of a new efficient and safe Flight Control Computer (FCC) architecture, which is also able to manage redundancy of the FCS. By using interfaces already provided by the MCUs for the implementation of the redundancy network, the efficiency and integration density can be fairly increased. Thus some guidance is given on how to mitigate MCU related safety concerns and on the implementation of the redundancy network. Also the aspect of achieving a tight synchronization between all nodes within the network is mandatory for every full-time safety critical redundancy system. Thus synchronization is examined in the context of the desired approach, with a strong focus on MCU specific influences and the challenge on how to select a suitable synchronization algorithm. To demonstrate the feasability of the design, an exemplary design is presented which has been implemented for further performance and synchronization measurements.
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