Space Debris Collision Detection using Reachability

ARCH@ADHS Pub Date : 2018-09-17 DOI:10.29007/5313
Kerianne L. Hobbs, Peter Heidlauf, Alexander Collins, Stanley Bak
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引用次数: 5

Abstract

Benchmark Proposal: Space debris tracking and collision prediction is a growing worldwide problem as more and more objects are placed into orbit. While traditional methods simulate particles with Gaussian uncertainty to make collision predictions, we instead analyze the problem from a reachability perspective. The problem appears to require methods capable of quickly analyzing high-dimensional nonlinear systems, but we take advantage multiple kinds of problem structure to show that reachability analysis may be viable for this problem. In particular we present an initial analysis approach that uses numerical simulation for reachability analysis, and interval arithmetic with AABB trees for fast collision detection. The analysis uses a variable size time step with a counter-example guided abstraction refinement (CEGAR) method to increase analysis speed without sacrificing accuracy. Our approach can analyze upwards of thousands of orbiting objects faster than real-time, where each object is subject to some initial state uncertainty.
基于可达性的空间碎片碰撞检测
基准建议:随着越来越多的物体进入轨道,空间碎片跟踪和碰撞预测是一个日益严重的世界性问题。传统方法采用高斯不确定性模拟粒子进行碰撞预测,而本文从可达性角度分析碰撞预测问题。这个问题似乎需要能够快速分析高维非线性系统的方法,但我们利用多种问题结构来表明可达性分析可能是可行的。特别地,我们提出了一种使用数值模拟进行可达性分析的初始分析方法,以及使用AABB树进行快速碰撞检测的区间算法。该分析使用可变大小的时间步和反例引导抽象细化(CEGAR)方法来提高分析速度而不牺牲准确性。我们的方法可以比实时更快地分析数千个轨道上的物体,每个物体都有一些初始状态的不确定性。
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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