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A new stable nonlinear textural feature extraction method based EEG signal classification method using substitution Box of the Hamsi hash function: Hamsi pattern

机译:一种新的稳定非线性纹理特征提取方法基于HAMSI哈希函数替代盒的EEG信号分类方法:HAMSI模式

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Background: The EEG signal classification is crucial for epileptic seizure prediction. Therefore, many machine learning model has been presented to classify EEG signals accurately.Material and Method: This work presents a novel automated EEG classification method by using a novel nonlinear feature extractor, and it is called as Hamsi-Pat. It uses the substitution box (S-Box) of the Hamsi hash function. As stated in the literature, S-Boxes have generally used for diffusion in symmetric encryption (especially block ciphers) methods and cryptologic hash functions. Since it is a nonlinear structure, this work aims to illustrate the merit of an S-Box for feature generation. Therefore, a new generation feature generator, which is Hamsi-Pat, is presented by using S-Box of the Hamsi hash function, and a novel EEG classification method is proposed by using Hamsi-Pat. The presented biomedical signal classification method has three elementary phases, and these phases are Hamsi-Pat based multileveled feature generation, iterative neighborhood component analysis (INCA) selector based feature dimension reduction, and classification using k nearest neighborhood (kNN) classifier. The presented Hamsi-Pat and INCA based methods were tested on Bonn electroencephalography (EEG) datasets.Result: This model yielded 99.20% classification accuracy on the used EEG dataset for five classes case and it yielded 100.0% accuracies for other cases.Conclusion: These results obviously denoted that the S-Boxes can be considered as a feature generator, and a novel S-Box based feature generation research area can be defined as textural feature generation and statistical feature generation. (C) 2020 Elsevier Ltd. All rights reserved.
机译:背景:EEG信号分类对于癫痫癫痫发作预测至关重要。因此,已经提出了许多机器学习模型以准确地对脑电格信号进行分类。通过使用新颖的非线性特征提取器提出了一种新的自动化EEG分类方法,它被称为HAMSI-PAT。它使用HAMSI哈希函数的替换框(S-BOX)。如文献中所述,S箱通常用于对称加密(尤其是块密码)方法和加密散列函数的扩散。由于它是非线性结构,因此该工作旨在说明用于特征生成的S盒的优点。因此,通过使用HAMSI哈希函数的S盒,通过使用HAMSI-PAT提出了一种新的一代特征生成器,它是由HAMSI哈希函数的S盒提出的,并提出了一种新的EEG分类方法。呈现的生物医学信号分类方法具有三个基本阶段,并且这些阶段是HAMSI-PAT基的多级特征产生,迭代邻域分量分析(INCA)选择的特征尺寸减小,以及使用K最近邻域(KNN)分类器的分类。在Bonn electrencealcalography(EEG)Datasets上测试了所呈现的Hamsi-Pat和Inca的方法。结果:此模型在五个类案例的使用EEG数据集上产生了99.20%的分类准确性,其其他情况下产生了100.0%的准确性。结论:这些结果显然表示,S箱可以被认为是特征发生器,并且基于新的S盒的特征生成研究区域可以被定义为纹理特征生成和统计特征生成。 (c)2020 elestvier有限公司保留所有权利。

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