Acoustic Features Characterization of Autism Speech for Automated Detection and Classification

Abhijit Mohanta, Prerana Mukherjee, Vinay Kumar Mirtal
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引用次数: 9

Abstract

The verbal children affected with autism spectrum disorder (ASD) often shows some notable acoustic patterns. This paper represents the classification of autism speech, i.e., the speech signal of children affected with ASD. In addition, this work specifically aims to classify the speech signals of non-native Indo English speakers (children) affected with ASD. Previous studies, however, have focused only on native English speakers. Hence, for this study purpose a speech signal dataset of ASD children and a speech signal dataset of normal children were recorded in English, and all the children selected for the data collection were non-native Indo English speakers. Here, for the ASD and the normal children, the acoustic features explored for classification are namely, fundamental frequency (FO), strength of excitation (SoE), formants frequencies (F1 to F5), dominant frequencies (FD1, FD2), signal energy (E), zero-crossing rate (ZCR), mel-frequency cepstral coefficients (MFCC), and linear prediction cepstrum coefficients (LPCC). Further, these feature sets are classified by utilizing different classifiers. The KNN classifier model achieves the highest 96.5% accuracy with respect to other baseline models explored here.
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用于自动检测和分类的自闭症语音声学特征表征
患有自闭症谱系障碍(ASD)的言语儿童经常表现出一些显著的声音模式。本文介绍了自闭症言语的分类,即自闭症儿童的言语信号。此外,本工作专门针对非母语为印度英语的ASD患者(儿童)的语音信号进行分类。然而,之前的研究只关注以英语为母语的人。因此,在本研究中,我们用英语记录了一个ASD儿童的语音信号数据集和一个正常儿童的语音信号数据集,并选择了非母语为印度英语的儿童作为数据收集的对象。在这里,针对ASD和正常儿童,探讨了用于分类的声学特征,即基频(FO)、激发强度(SoE)、共振峰频率(F1 ~ F5)、主导频率(FD1、FD2)、信号能量(E)、过零率(ZCR)、低频倒谱系数(MFCC)和线性预测倒谱系数(LPCC)。此外,这些特征集通过使用不同的分类器进行分类。相对于本文探讨的其他基线模型,KNN分类器模型达到了最高的96.5%的准确率。
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