A comparison of radial basis function networks and fuzzy neural logic networks for autonomous star recognition

J. Dickerson, J. Hong, Z. Cox, D. Bailey
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引用次数: 1

Abstract

Autonomous star recognition requires that many similar patterns must be distinguished from one another with a small training set. Since these systems are implemented on-board a spacecraft, the network needs to have low memory requirements and minimal computational complexity. Fast training speeds are also important since star sensor capabilities change over time. This paper compares two networks that meet these needs: radial basis function networks and neural logic networks. Neural logic networks performed much better than radial basis function networks in terms of recognition accuracy, memory needed, and training speed.
径向基函数网络与模糊神经逻辑网络在自主星识别中的比较
自主星识别要求必须用一个小的训练集来区分许多相似的模式。由于这些系统是在航天器上实现的,因此网络需要具有较低的内存要求和最小的计算复杂性。快速的训练速度也很重要,因为星敏感器的能力会随着时间的推移而变化。本文比较了满足这些需求的两种网络:径向基函数网络和神经逻辑网络。神经逻辑网络在识别精度、记忆需求和训练速度方面都优于径向基函数网络。
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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