Reservoir Computing With Pulse‐Type Hardware Chaotic Neuron Model

ABSTRACT Reservoir computing (RC) has attracted much attention in recent years as a model suitable for machine learning of time series information and requiring low computational resources. Among these, physical reservoir computing (PRC), in which RC is implemented in hardware devices, has been actively studied using various devices as it is applicable to edge computing. In this article, we construct a RC system using Pulse‐type Hardware Chaotic Neuron Model (P‐HCNM), which can be implemented in integrated circuits, and perform a benchmark task. A second order Nonlinear Auto Regressive Moving Average (NARMA) task, which is widely used as a benchmark task for RC, is evaluated using Normalized‐Mean‐Square‐Error (NMSE), and the result is 0.0456. The score is comparable to other PRCs in previous studies. In the Delay task that evaluates short‐term memory, the recall results of the RC showed a forgetting curve. The result indicates that RCs have short‐term memory, which is a necessary component for RCs. Using these benchmark tasks, we suggest that a P‐HCNM‐implemented neural network can be the hardware basis for a neuromorphic reservoir computing system.

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Publication Details

Journal
Electronics and Communications in Japan
Published
2026-02-04
DOI
https://doi.org/10.1002/ecj.70020
Primary Topic
Neural Networks and Reservoir Computing
Type
article
Field-Weighted Citation Impact
0.00

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article

Reservoir Computing With Pulse‐Type Hardware Chaotic Neuron Model

K. Saeki, Takuto Yamaguchi, Takeru Yonekawa
Electronics and Communications in Japan
Neural Networks and Reservoir Computing
article

Reservoir Computing With Pulse‐Type Hardware Chaotic Neuron Model

K. Saeki, Takuto Yamaguchi, Takeru Yonekawa
article en

Abstract

ABSTRACT Reservoir computing (RC) has attracted much attention in recent years as a model suitable for machine learning of time series information and requiring low computational resources. Among these, physical reservoir computing (PRC), in which RC is implemented in hardware devices, has been actively studied using various devices as it is applicable to edge computing. In this article, we construct a RC system using Pulse‐type Hardware Chaotic Neuron Model (P‐HCNM), which can be implemented in integrated circuits, and perform a benchmark task. A second order Nonlinear Auto Regressive Moving Average (NARMA) task, which is widely used as a benchmark task for RC, is evaluated using Normalized‐Mean‐Square‐Error (NMSE), and the result is 0.0456. The score is comparable to other PRCs in previous studies. In the Delay task that evaluates short‐term memory, the recall results of the RC showed a forgetting curve. The result indicates that RCs have short‐term memory, which is a necessary component for RCs. Using these benchmark tasks, we suggest that a P‐HCNM‐implemented neural network can be the hardware basis for a neuromorphic reservoir computing system.

Electronics and Communications in JapanVol. 109(1)
Nihon University (JP)
University of Tokyo
Openalex Percentile: Top 68%
Neural Networks and Reservoir Computing
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Reservoir Computing With Pulse‐Type Hardware Chaotic Neuron Model — K. Saeki, Takuto Yamaguchi, et al. · Electronics and Communications in Japan (2026) | TGRS Research Map | TGRS