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Journal
Neurocomputing

Neurocomputing publishes articles describing recent fundamental contributions in the field of neurocomputing. Neurocomputing theory, practice and applications are the essential topics being covered.

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Competitive Nonlinear Layered Spiking Neural P System for solving classification problems

by - Hai Nan, Hongji Chen, Ping Guo, Chunmei Liao & S.M. Ahanaf Tahmid .

Project Info

This paper proposes a novel Spiking Neural P (SN P) system variant called the Competitive Nonlinear Layered Spiking Neural P (CNLSN P) system for solving classification problems. The SN P system is a biologically inspired model from membrane computing and spiking neural networks. The CNLSN P system incorporates nonlinear mechanisms and neuronal competition to enhance robustness, flexibility, sparsity, and learning capabilities. Additionally, a deep learning model named ConvCNLSNP is proposed to further improve efficiency for classification tasks.

Abstract

Spiking Neural P (SN P) systems are neural-like membrane computing models inspired by spiking neurons. The flexible structure of SN P systems allows them to model learning processes without simplified neurons. This paper introduces a novel variant, the Competitive Nonlinear Layered Spiking Neural P (CNLSN P) system, to address classification problems. Experiments on benchmark datasets show that CNLSN P outperforms previous Layered Spiking Neural P (LSN P) systems by improving recognition accuracy by 1.5%–2.5%. Furthermore, the paper presents ConvCNLSNP, a deep learning model based on CNLSN P, which achieves 85%–98% faster execution time while maintaining accuracy similar to traditional CNNs.

Key Findings:
Concept for Project
CNLSN P system improves classification accuracy by 1.5%–2.5% compared to traditional LSN P systems.
The addition of nonlinear firing rules and neuronal competition mechanisms improves robustness, adaptability, and learning capability.
The ConvCNLSNP model reduces computational time by 85%–98% while achieving comparable accuracy to conventional Convolutional Neural Networks (CNNs).
CNLSN P offers greater flexibility, sparsity, and self-organization, making it more suitable for dynamically changing data.
This system is biologically realistic, incorporating mechanisms such as lateral inhibition, dendritic delays, and axonal processes.
Conclusion:
The Competitive Nonlinear Layered Spiking Neural P (CNLSN P) system is an innovative advancement in SN P systems for classification problems. By introducing nonlinear firing rules and competition mechanisms, the system achieves improved accuracy, adaptability, and computational efficiency. The ConvCNLSNP model further enhances practical usability by drastically reducing processing time while maintaining classification performance comparable to CNNs. This work contributes to bridging biologically inspired models with machine learning, offering new directions for future research and application in classification tasks.
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