物联网范式中的音频频谱图分析,用于心理情感特征分类

Ankit Kumar, Sushil Kumar Singh, Indu Bhardwaj, Prakash Kumar Singh, Ashish Khanna, Biswajit Brahma
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引用次数: 0

摘要

心理活动具有多种维度,它们与人体产生的各自行为相关联。从外部动作单元了解心理事件的关系,是探索人类各种行为及其依赖关系的研究课题之一。医学领域的心理分析研究非常费时费力。它需要对病人进行一段时间的持续监测和各种询问,才能最终确定一个人的情绪严重程度。探索人类情绪所面临的挑战推动了这一领域对计算机视觉技术的需求。拟议的研究借助由麦克风组成的物联网(IoT)设备获取的人的音频频谱图,明确评估了心理情绪活动的识别,以研究其与心理事件的相关性。音频样本是在非对称环境中采集的,其中噪音的几率是随机的。噪音消除、低功耗和灵敏度控制是麦克风物联网的一些突出特点,已被用于提取原始音频样本。所提出的系统遵循从音频频谱图中提取特征的原则,如 mel-frequency cepstral coefficients (MFCC)、harmonic to noise rate (HNR)、zero crossing rate (ZCR) 和 Generative Adversarial Networks (GAN)。该研究使用了一个基于深度学习的模型,其中包含一个卷积神经网络模型,以从音频频谱图特征中识别和分类不同的心理情绪阶段,包括快乐、愤怒、厌恶、惊讶、恐惧和悲伤。在最多 312 次迭代中,该分类模型识别所有情绪的平均准确率达到 99.42%。该模型在各种应用中都很稳健,如预防自杀、改善抑郁症患者诊断决策、改善整个心理医疗系统等。
本文章由计算机程序翻译,如有差异,请以英文原文为准。

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Audio spectrogram analysis in IoT paradigm for the classification of psychological-emotional characteristics

Psychological activities have various dimensions in which they correlate with their respective behavior generated by the human body. Understanding the relationship of psychological events from external action units is one of the research subjects to explore various human behavior and their dependencies. The study of psychological analysis in the medical field is very time-consuming and costly. It requires constant monitoring of the patient for some time and various interrogation sessions to finalize the emotional severity of an individual. The challenges in exploring human emotions propel the requirement of computer vision techniques in this field. The proposed study explicitly evaluates the recognition of psychological-emotional activities with the help of an audio spectrogram of people fetched through an IoT (Internet of Things) device comprising a microphone to investigate its correlation with psychological events. The audio samples are collected in an asymmetric environment where the chances of the noise are random. Noise cancellation, low power consumption, and sensitivity controls are some of the prominent features of the microphone IoT that have been used to extract raw audio samples. The proposed system follows the extraction of features such as mel-frequency cepstral coefficients (MFCC), harmonic to noise rate (HNR), zero crossing rate (ZCR), and Generative Adversarial Networks (GAN) from the audio spectrogram. The study uses a deep learning-based model containing a convolutional neural network model to recognize and classify different psychological-emotional stages including happiness, anger, disgust, surprise, fear, and sadness from audio spectrogram features. The average accuracy of the classification model for the recognition of all emotions is found to be 99.42% in a maximum of 312 iterations. The model is found to be robust for various applications such as preventing suicidal cases, improving decision-making in the diagnosis of depression patients, improves the overall mental healthcare system.

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