CANONICAL CORRELATION CNN FRAMEWORK FOR ROBUST NOISE SUPPRESSION FOR IMPROVED SPEECH QUALITY

Noise reduction is crucial for enhancing audio clarity in telecommunications and broadcast systems. Traditional methods like spectral subtraction have been widely used, leveraging noise spectrum estimation to suppress interference. While effective for stationary noise, these methods often introduce artifacts and struggle with dynamic noise conditions, limiting their applicability in real-time scenarios. This work proposes an Canonical Correlation Deep Learning (CCDL) for advanced noise reduction. The method dynamically adjusts its parameters to handle both stationary and non-stationary noise. Its Canonical Correlation Bandpass configuration focuses on the frequency range of the desired signal, ensuring superior noise suppression while preserving audio integrity. Real-time adaptability and artifact minimization further enhance its suitability for telecommunications and live broadcasting applications. Comprehensive evaluations demonstrate the proposed method's advantages over traditional techniques. Metrics such as Signal-to-Noise Ratio (SNR) and Perceptual Evaluation of Speech Quality (PESQ) validate its effectiveness in delivering clearer, more natural audio. The CCDL represents a significant advancement in noise reduction technology, addressing the limitations of existing methods and setting a new standard for audio processing in modern communication networks

Authors

Publication Details

Journal
Scientific Digest Journal of Applied Engineering
Published
2025-07-14
DOI
https://doi.org/10.70864/joae.2025.v13.i7(1).pp218-224
Primary Topic
Speech and Audio Processing
Type
article
Field-Weighted Citation Impact
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article

CANONICAL CORRELATION CNN FRAMEWORK FOR ROBUST NOISE SUPPRESSION FOR IMPROVED SPEECH QUALITY

K. Sravani, K. Vamshi Krishna, M.S.R. Naidu, Badipelli Shobhanjali
Scientific Digest Journal of Applied Engineering
Speech and Audio Processing
article

CANONICAL CORRELATION CNN FRAMEWORK FOR ROBUST NOISE SUPPRESSION FOR IMPROVED SPEECH QUALITY

K. Sravani, K. Vamshi Krishna, M.S.R. Naidu, Badipelli Shobhanjali
article en

Abstract

Noise reduction is crucial for enhancing audio clarity in telecommunications and broadcast systems. Traditional methods like spectral subtraction have been widely used, leveraging noise spectrum estimation to suppress interference. While effective for stationary noise, these methods often introduce artifacts and struggle with dynamic noise conditions, limiting their applicability in real-time scenarios. This work proposes an Canonical Correlation Deep Learning (CCDL) for advanced noise reduction. The method dynamically adjusts its parameters to handle both stationary and non-stationary noise. Its Canonical Correlation Bandpass configuration focuses on the frequency range of the desired signal, ensuring superior noise suppression while preserving audio integrity. Real-time adaptability and artifact minimization further enhance its suitability for telecommunications and live broadcasting applications. Comprehensive evaluations demonstrate the proposed method's advantages over traditional techniques. Metrics such as Signal-to-Noise Ratio (SNR) and Perceptual Evaluation of Speech Quality (PESQ) validate its effectiveness in delivering clearer, more natural audio. The CCDL represents a significant advancement in noise reduction technology, addressing the limitations of existing methods and setting a new standard for audio processing in modern communication networks

Scientific Digest Journal of Applied EngineeringVol. 13(7(1))
Openalex Percentile: Top 79%
Speech and Audio Processing
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