小神经元系统中学习和行为的计算模型

T. W. Scutt, R. Damper
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引用次数: 17

摘要

值得注意的是,几乎所有对神经和大脑功能建模的尝试都可以归为两类之一:使用(理想情况下)大量简单但紧密相连的处理元素的人工神经网络,或单个神经元的详细生理模型。作者报告了他们在制定一个在这两个极端之间的水平上运行的计算模型方面的进展。单个神经元在膜电位水平上考虑;这允许从模型输出直接与在细胞内记录获得的生理数据进行比较。一种面向对象的编程语言被用来产生一个模型,其中每个对象相当于一个神经元。使用面向对象语言的好处是双重的。该程序已经通过模拟鳃退缩反射的学习和行为进行了测试。使用基于参数的系统,可以为参与这种反射的特定神经元指定适当的特征,并模拟涉及的一些子电路。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Computational modelling of learning and behaviour in small neuronal systems
It is noted that almost all attempts to model neural and brain function have fallen into one of two categories: artificial neural networks using (ideally) large numbers of simple but densely interconnected processing elements, or detailed physiological models of single neurons. The authors report on their progress in formulating a computational model which functions at a level between these two extremes. Individual neurons are considered at the level of membrane potential; this allows outputs from the model to be compared directly with physiological data obtained in intracellular recording. An object-oriented programming language has been used to produce a model where each object equates to a neuron. The benefits of using an object-oriented language are two-fold. The program has been tested by modeling the learning and behavior of the gill-withdrawal reflex in Aplysia. The use of a parameter-based system has made it possible to specify appropriate characteristics for the particular neurons participating in this reflex and to simulate some of the subcircuits involved.<>
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