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关于脉冲神经元之间信息流的最大化

On the maximization of information flow between spiking neurons.

作者信息

Parra Lucas C, Beck Jeffrey M, Bell Anthony J

机构信息

Biomedical Engineering Department, City College of New York, New York, NY 10033, USA.

出版信息

Neural Comput. 2009 Nov;21(11):2991-3009. doi: 10.1162/neco.2009.04-06-184.

DOI:10.1162/neco.2009.04-06-184
PMID:19635018
Abstract

A feedforward spiking network represents a nonlinear transformation that maps a set of input spikes to a set of output spikes. This mapping transforms the joint probability distribution of incoming spikes into a joint distribution of output spikes. We present an algorithm for synaptic adaptation that aims to maximize the entropy of this output distribution, thereby creating a model for the joint distribution of the incoming point processes. The learning rule that is derived depends on the precise pre- and postsynaptic spike timings. When trained on correlated spike trains, the network learns to extract independent spike trains, thereby uncovering the underlying statistical structure and creating a more efficient representation of the incoming spike trains.

摘要

前馈脉冲神经网络表示一种非线性变换,它将一组输入脉冲映射为一组输出脉冲。这种映射将输入脉冲的联合概率分布转换为输出脉冲的联合分布。我们提出了一种突触适应算法,旨在最大化该输出分布的熵,从而创建一个用于输入点过程联合分布的模型。推导得出的学习规则取决于精确的突触前和突触后脉冲时间。当在相关脉冲序列上进行训练时,该网络学会提取独立的脉冲序列,从而揭示潜在的统计结构,并创建输入脉冲序列的更有效表示。

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