Audio Classification: Identification of Single and Multiple Sounds in an Audio Clip

Classifying multiple sounds in continuous audio streams is a complex and critical task, especially in real-world scenarios where different audio sources such as background conversations, music, environmental noise, and speech can occur simultaneously. Traditional audio classification methods often struggle in such conditions due to the complexity and variation in the sound patterns. Classifying multiple sounds in continuous audio streams is a complex and critical task, especially in real-world scenarios where different audio sources such as background conversations, music, environmental noise, and speech can occur simultaneously. Traditional audio classification methods often struggle in such conditions due to the complexity and variation in the sound patterns. This project presents a deep learning-based approach to effectively identify and categorize individual sound types within a mixed audio recording. To process and analyze audio data, raw signals are first converted into informative visual representations such as Mel-frequency Cepstral Coefficients (MFCCs) and spectrograms, which record crucial time-frequency characteristics. Convolutional Neural Networks (CNNs), which can automatically learn complex sound patterns and spatial information, are then fed these representations. CNNs are excellent at extracting hierarchical characteristics, which makes them ideal for jobs that require classifying continuous and overlapping sounds. There are many real-world uses for this approach. In voice-controlled smart homes, it can help detect unusual sounds like glass breaking or smoke alarms. In online examination systems, it can be used to monitor background noise for potential violations such as whispering or unauthorized conversations. Other applications include enhancing the robustness of speech recognition systems, improving multimedia content indexing, and supporting surveillance or security systems by identifying critical sound events in real-time.

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Publication Details

Published
2025-07-04
DOI
https://doi.org/10.1109/icctdc64446.2025.11158131
Primary Topic
Music and Audio Processing
Type
article
Field-Weighted Citation Impact
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article

Audio Classification: Identification of Single and Multiple Sounds in an Audio Clip

K. S. V. Supraja, K. Bhavani, G. Balu
Music and Audio Processing
article

Audio Classification: Identification of Single and Multiple Sounds in an Audio Clip

K. S. V. Supraja, K. Bhavani, G. Balu
article en

Abstract

Classifying multiple sounds in continuous audio streams is a complex and critical task, especially in real-world scenarios where different audio sources such as background conversations, music, environmental noise, and speech can occur simultaneously. Traditional audio classification methods often struggle in such conditions due to the complexity and variation in the sound patterns. Classifying multiple sounds in continuous audio streams is a complex and critical task, especially in real-world scenarios where different audio sources such as background conversations, music, environmental noise, and speech can occur simultaneously. Traditional audio classification methods often struggle in such conditions due to the complexity and variation in the sound patterns. This project presents a deep learning-based approach to effectively identify and categorize individual sound types within a mixed audio recording. To process and analyze audio data, raw signals are first converted into informative visual representations such as Mel-frequency Cepstral Coefficients (MFCCs) and spectrograms, which record crucial time-frequency characteristics. Convolutional Neural Networks (CNNs), which can automatically learn complex sound patterns and spatial information, are then fed these representations. CNNs are excellent at extracting hierarchical characteristics, which makes them ideal for jobs that require classifying continuous and overlapping sounds. There are many real-world uses for this approach. In voice-controlled smart homes, it can help detect unusual sounds like glass breaking or smoke alarms. In online examination systems, it can be used to monitor background noise for potential violations such as whispering or unauthorized conversations. Other applications include enhancing the robustness of speech recognition systems, improving multimedia content indexing, and supporting surveillance or security systems by identifying critical sound events in real-time.

Vignan's Foundation for Science, Technology & Research (IN)
Openalex Percentile: Top 68%
Music and Audio Processing
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