Complex-Valued Neural Networks

T. Nitta
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引用次数: 11

Abstract

The usual real-valued artificial neural networks have been applied to various fields such as telecommunications, robotics, bioinformatics, image processing and speech recognition, in which complex numbers (two dimensions) are often used with the Fourier transformation. This indicates the usefulness of complex-valued neural networks whose input and output signals and parameters such as weights and thresholds are all complex numbers, which are an extension of the usual real-valued neural networks. In addition, in the human brain, an action potential may have different pulse patterns, and the distance between pulses may be different. This suggests that it is appropriate to introduce complex numbers representing phase and amplitude into neural networks. Aizenberg, Ivaskiv, Pospelov and Hudiakov (1971) (former Soviet Union) proposed a complex-valued neuron model for the first time, and although it was only available in Russian literature, their work can now be read in English (Aizenberg, Aizenberg & Vandewalle, 2000). Prior to that time, most researchers other than Russians had assumed that the first persons to propose a complex-valued neuron were Widrow, McCool and Ball (1975). Interest in the field of neural networks started to grow around 1990, and various types of complex-valued neural network models were subsequently proposed. Since then, their characteristics have been researched, making it possible to solve some problems which could not be solved with the real-valued neuron, and to solve many complicated problems more simply and efficiently.
复值神经网络
通常的实值人工神经网络已经应用于电信、机器人、生物信息学、图像处理和语音识别等各个领域,其中复数(二维)经常与傅里叶变换一起使用。这表明了复值神经网络的实用性,它的输入输出信号和参数如权值、阈值等都是复数,是对通常的实值神经网络的扩展。此外,在人脑中,一个动作电位可能有不同的脉冲模式,脉冲之间的距离也可能不同。这表明在神经网络中引入表示相位和振幅的复数是合适的。Aizenberg, Ivaskiv, Pospelov和Hudiakov(1971)(前苏联)首次提出了一个复值神经元模型,虽然它只在俄罗斯文献中可用,但他们的工作现在可以在英语中阅读(Aizenberg, Aizenberg & Vandewalle, 2000)。在此之前,除俄罗斯人外,大多数研究人员都认为第一个提出复值神经元的人是Widrow, McCool和Ball(1975)。1990年前后,人们对神经网络领域的兴趣开始增长,随后提出了各种类型的复值神经网络模型。从那时起,人们对它们的特性进行了研究,使得解决一些实值神经元无法解决的问题成为可能,使许多复杂的问题更简单有效地解决。
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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