学习时空模式的生物学启发方法

Banafsheh Rekabdar, M. Nicolescu, M. Nicolescu, Richard Kelley
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引用次数: 3

摘要

本文提出了一种无监督的方法,用于学习和分类具有时空结构的模式,使用具有轴突电导延迟的峰值定时神经网络,从非常小的训练样本集。将时空模式转化为脉冲序列,利用脉冲时间依赖的可塑性学习训练神经网络。一种模式被编码成一串“字符”,其中每个字符都是一组神经元,它们在特定的时间步被激活,这是网络受到相应输入刺激的结果。对于分类,我们基于最长公共子序列动态规划算法,计算新样本与训练样本之间的相似性度量,从而开发出一种完全无监督的方法。该方法在手写数字数据集上进行了测试,其中包括空间和时间信息,结果与其他最先进的监督学习方法相当。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
A biologically inspired approach to learning spatio-temporal patterns
This paper presents an unsupervised approach for learning and classifying patterns that have spatio-temporal structure, using a spike-timing neural network with axonal conductance delays, from a very small set of training samples. Spatio-temporal patterns are converted into spike trains, which can be used to train the network with spike-timing dependent plasticity learning. A pattern is encoded as a string of “characters,” in which each character is a set of neurons that fired at a particular time step, as a result of the network being stimulated with the corresponding input. For classification we compute a similarity measure between a new sample and the training examples, based on the longest common subsequence dynamic programming algorithm to develop a fully unsupervised approach. The approach is tested on a dataset of hand-written digits, which include spatial and temporal information, with results comparable with other state-of-the-art supervised learning approaches.
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