研究主动碎片清除任务的高性能航空电子仿真工具

M. Juillard, Muriel Richard-Noca, J. Kneib
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引用次数: 1

摘要

本文描述了一种仿真工具的开发,该工具允许为未来的主动碎片清除(ADR)空间任务执行航空电子架构的权衡。ADR任务的主要挑战在于其首先探测和跟踪目标的能力,然后进行近距离操作和捕获。所有这些任务阶段都意味着各种各样的传感器,这些传感器主要用于航天器的制导、导航和控制(GNC)。首先对传感器输出进行处理,获取目标的位置和姿态估计,然后将结果传输给GNC算法进行精确导航。为了获得准确的目标信息,该算法需要较高的输入速率和多个传感器源。在EPFL航天中心,我们开发了一种模拟工具,以帮助设计我们的ADR任务,清洁空间一号(CSO)的高要求航空电子设备。模拟器支持对各种硬件配置进行分析和“权衡”。为了再现真实场景,模拟器必须考虑不同任务阶段的需求,因为它们在数据处理、视觉算法复杂性和控制回路速度方面存在差异。这个新开发的工具已用于研究具有特定ADR需求的多种硬件配置。在这些模拟过程中获得的结果提供了第一套统一的要求,这将有助于设计任务所需的高要求航空电子设备。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Simulation Tool to Study High Performance Avionic for Active Debris Removal Missions
This paper describes the development of a simulation tool that allows to perform trade-offs of avionic architectures for future Active Debris Removal (ADR) space missions. The main challenges of ADR missions lay in their ability to first detect and track a target, then perform proximity operation and capture. All these mission phases imply a variety of sensors which are mainly needed for the Guidance, Navigation and Control (GNC) of the spacecraft. First, sensors outputs need to be processed to retrieve position and attitude estimation of the target, then results are transmitted to the GNC algorithms for precise navigation. To obtain accurate target information, the algorithms require a high input data rate and multiple sensor sources. At the EPFL Space Center, we have developed a simulation tool to help design the highly demanding avionic of our ADR mission, CleanSpace One (CSO). The simulator supports analyses and “trade-offs” with respect to various hardware configurations. To reproduce realistic scenarios, the simulator has to consider requirements of the different mission phases since they vary in term of data processing, vision algorithm complexity and control loop speed. This newly developed tool has been used to investigate multiple hardware configurations with specific ADR requirements. Results obtained during these simulations offer a first set of consolidated requirements that will help the design of the highly demanding avionic needed for the mission.
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