基于sram的fpga实现光子事件识别的自检神经系统

M. Alderighi, S. D'Angelo, G. Sechi, V. Piuri
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引用次数: 2

摘要

本文介绍并评价了一种用于增强电荷耦合器件探测器中光子事件识别的自检神经系统的设计与实现。神经网络方法具有通过实例学习的能力,比传统的算法方法更有效。实现是由基于sram的fpga完成的,这引起了航天界越来越多的兴趣。本文以一种特殊的方式说明了采用合适的在线故障检测技术是如何引起的。这些技术基于AN编码,特别是3N编码,这构成了电路复杂性和计算延迟之间的合理权衡。报告了电路面积、架空和故障覆盖率的估计。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Implementing a self-checking neural system for photon event identification by SRAM-based FPGAs
The paper presents and evaluates the design and the implementation of a self-checking neural system for photon event identification in intensified charge-coupled device detectors. The neural approach reveals more effective than classical algorithmic approaches thanks to its learning through example ability. Implementation is accomplished by SRAM-based FPGAs, which have generated increasing interest in the space community. The adoption of suitable on-line fault detection techniques is illustrated taking into account in a specific way SEU induced faults. The techniques are based on AN coding, particularly 3N coding, which constitutes a reasonable trade-off between circuit complexity and computational delay. Estimations of circuit area overhead and fault coverage are reported.
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