自由飞行无人机自主航天器检测

Sami Mian, Tyler Garrett, Alexander M. Glandon, Christopher Manderino, Swee Balachandran, C. Muñoz, Chester V. Dolph
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引用次数: 2

摘要

本文描述了一个概念验证任务,演示了一个多智能体系统对航天器遭受的损伤进行视觉检查。由无人机模拟的自由飞行卫星在模拟空间模块周围自主飞行,最大限度地提高了损伤检测的搜索空间。自由飞行者在执行任务时,要负责独立协调飞行,避免与太空舱和彼此碰撞。利用来自每个自由飞行器的视频,对模拟太空舱表面进行实时损伤分析。离线部署三维建模,以补充和改进损伤检测。这种方法证明了部署真实空间系统进行损伤检测的可行性,其中2D分析可以快速确定感兴趣的区域,3D可视化可以产生具有深度视角的人类可导航虚拟环境,以供进一步研究。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Autonomous Spacecraft Inspection with Free-Flying Drones
This paper describes a proof-of-concept mission demonstrating a multi-agent system performing visual inspection of damage sustained by a spacecraft. Free-flying satellites, simulated by unmanned aerial vehicles (UAVs), autonomously fly around a mock space module maximizing the search space for damage detection. The free-flyers are responsible for independently coordinating their flights to avoid collision with the space module and each other, while executing mission tasks. Damage analysis on the surface of the mock space module is performed in real-time using video from each free-flyer. Three-dimensional modeling is deployed offline to supplement and improve damage detection. This approach demonstrates the feasibility of deploying real space systems for damage detection, where 2D analysis can quickly determine region of interest and 3D visualization can produce a human-navigable virtual environment with depth perspective for further investigation.
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