A Hardware Chaotic Neural Network With Gap Junction Models

IF 0.5 4区 工程技术 Q4 ENGINEERING, ELECTRICAL & ELECTRONIC
Takuto Yamaguchi, Katsutoshi Saeki
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引用次数: 0

Abstract

We aim at the engineering applications of reservoir computing using hardware chaotic neural networks, including associative memory recall. The reservoir layer used in reservoir computing is networked and constructed using pulse-type hardware chaos neuron models (P-HCNMs). The structure of the reservoir layer is simple, which is advantageous for hardware implementation. By inducing chaos in the reservoir layer, it is possible to use the “chaotic edge” where the reservoir reaches its highest efficiency. It has also been reported that incorporating self-correction within the reservoir layer increases the efficiency of the task. In this paper, we constructed a hardware small-world neural network using a synaptic model with spike timing-dependent synaptic plasticity (STDP) and a gap junction model. As a result, it is clarified that all cell body models with synaptic model connections show chaotic firing by simulation at the same time, and that the STDP model enables learning while keeping the chaotic phenomena. In addition, comparison with the firing of cell body models coupled only with synaptic models suggested that the gap junction model works significantly in inducing chaos in neural networks.

我们的目标是利用硬件混沌神经网络实现水库计算的工程应用,包括关联记忆调用。储层计算中使用的储层是利用脉冲型硬件混沌神经元模型(P-HCNM)构建的网络。储层结构简单,有利于硬件实现。通过在储层中诱导混沌,可以利用储层达到最高效率的 "混沌边缘"。另据报道,在储层中加入自校正功能可提高任务效率。在本文中,我们构建了一个硬件小世界神经网络,该网络采用了具有尖峰时序依赖性突触可塑性(STDP)的突触模型和缝隙连接模型。结果表明,通过模拟,所有具有突触模型连接的细胞体模型都会同时出现混沌发射,而 STDP 模型可以在保持混沌现象的同时实现学习。此外,与仅有突触模型的细胞体模型的发射比较表明,间隙连接模型在诱导神经网络的混沌方面起着重要作用。
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来源期刊
Electronics and Communications in Japan
Electronics and Communications in Japan 工程技术-工程:电子与电气
CiteScore
0.60
自引率
0.00%
发文量
45
审稿时长
6-12 weeks
期刊介绍: Electronics and Communications in Japan (ECJ) publishes papers translated from the Transactions of the Institute of Electrical Engineers of Japan 12 times per year as an official journal of the Institute of Electrical Engineers of Japan (IEEJ). ECJ aims to provide world-class researches in highly diverse and sophisticated areas of Electrical and Electronic Engineering as well as in related disciplines with emphasis on electronic circuits, controls and communications. ECJ focuses on the following fields: - Electronic theory and circuits, - Control theory, - Communications, - Cryptography, - Biomedical fields, - Surveillance, - Robotics, - Sensors and actuators, - Micromachines, - Image analysis and signal analysis, - New materials. For works related to the science, technology, and applications of electric power, please refer to the sister journal Electrical Engineering in Japan (EEJ).
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