Boolean Models Guide Intentionally Continuous Information and Computation Inside the Brain

G. Resconi
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Abstract

In 1943 Machculloch and Pitts create the formal neuron where many input signals are linearly composed with different weights on the neuron soma. When the soma electrical signal goes over a specific threshold an output is produced. The main topic in this model is that the response is the same response as in a Boolean function used a lot for the digital computer. Logic functions can be simplified with the formal neuron. But there is the big problem for which not all logic functions, as XOR , cannot be designed in the formal neuron. After a long time the back propagation and many other neural models overcame the big problem in some cases but not in all cases creating a lot of uncertainty. The model proposed does not consider the formal neuron but the natural network controlled by a set of differential equations for neural channels that model the current and voltage on the neuron surface. The steady state of the probabilities is the activation state continuous function whose maximum and minimum are the values of the Boolean function associated with the activation time of spikes of the neuron. With this method the activation function can be designed when the Boolean functions are known. Moreover the neuron differential equation can be designed in order to realize the wanted Boolean function in the neuron itself. The activation function theory permits to compute the neural parameters in agreement with the intention.
布尔模型引导有意连续的信息和大脑内的计算
1943年,Machculloch和Pitts创建了形式神经元,其中许多输入信号在神经元体上以不同的权重线性组成。当体细胞电信号超过特定阈值时,就会产生输出。该模型的主要主题是响应与数字计算机中大量使用的布尔函数中的响应相同。逻辑函数可以用形式神经元进行简化。但并不是所有的逻辑函数,如异或,都不能在形式神经元中设计,这是一个很大的问题。经过很长一段时间后,反向传播和许多其他神经模型在某些情况下克服了这个大问题,但并不是在所有情况下都克服了这个问题,造成了很多不确定性。该模型不考虑形式神经元,而是考虑由一组神经通道微分方程控制的自然网络,这些方程模拟神经元表面的电流和电压。概率的稳态是激活状态连续函数,其最大值和最小值是与神经元尖峰激活时间相关的布尔函数的值。利用该方法可以在布尔函数已知的情况下设计激活函数。此外,还可以设计神经元的微分方程,以实现神经元本身的布尔函数。激活函数理论允许计算与意图一致的神经参数。
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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