Detecting Digital Stimulant music Using Bidirectional Deep Long Short Term Memory

R. Sadek, Alaa A. Khalifa, M. A. Elfattah
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引用次数: 1

Abstract

Recently, researchers become interested in discovering patterns in brain activity that correspond to different emotions, so the link between musical stimuli and brain waves has received a lot of attention. Music with brainwave entrainment beats (Digital Stimulant) is one of many factors that affect brain waves. Digital stimulants can result in positive effects on human neurons. Stimulants may be used as a therapeutic stimulus, such as pain reduction. Also, it can have negative effects on the brain when its use increases feelings of depression or provokes seizures in patients with epilepsy. All of the research on the effect of music on brain waves has been done by classifying electroencephalograms (EEGs) collected from volunteers while listening to various types of music. However, EEG-based recognition suffers from the difficulty of obtaining each piece of music and obtaining humans to test it. This leads to the proposed idea of using music features such as Mel-Frequency Cepstral Coefficients (MFCC) and Gammatone Cepstral Coefficients (GTCC) to classify music and determine whether or not it will affect the brain. Hence, this paper proposes an approach for music classification based on the presence or absence of digital stimulant based on bidirectional deep long short term memory (BDLSTM) architecture. Since, as far as we know, there is no classified dataset for the music files based on whether the brainwave entrainment beats exist or not, the paper also proposes a new brainwave entrainment beats (BWEB) dataset to evaluate the proposed model performance. Classification results showed that the best performance is obtained when using the bidirectional deep long short term memory (BDLSTM) as it achieved an accuracy of 90.2%, while deeper long short term memory achieved an accuracy of 88.4%.
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利用双向深度长短期记忆检测数字刺激音乐
最近,研究人员对发现与不同情绪相对应的大脑活动模式很感兴趣,因此音乐刺激和脑电波之间的联系受到了很多关注。带有脑电波干扰节拍的音乐(数字刺激物)是影响脑电波的众多因素之一。数字兴奋剂可以对人类神经元产生积极影响。兴奋剂可用作治疗性刺激,如减轻疼痛。此外,当它的使用增加了抑郁症的感觉或引起癫痫患者的癫痫发作时,它会对大脑产生负面影响。所有关于音乐对脑电波影响的研究都是通过对志愿者在听不同类型的音乐时收集的脑电图(eeg)进行分类来完成的。然而,基于脑电图的识别存在着难以获取每一段音乐并让人进行测试的问题。这就提出了使用诸如Mel-Frequency Cepstral Coefficients (MFCC)和gamma - one Cepstral Coefficients (GTCC)等音乐特征来对音乐进行分类并确定其是否会影响大脑的想法。因此,本文提出了一种基于双向深度长短期记忆(BDLSTM)架构的基于数字刺激物存在与否的音乐分类方法。由于目前还没有基于脑波夹带节拍是否存在的音乐文件分类数据集,本文还提出了一个新的脑波夹带节拍(BWEB)数据集来评估所提出的模型的性能。分类结果表明,双向深度长短期记忆(BDLSTM)的分类准确率为90.2%,深度长短期记忆的分类准确率为88.4%。
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