Algorithms and Software for Speech Processing in Telecommunication

This article described the use of a wavelet algorithm to audio signal processing in telecommunications. The Haar wavelet, one of the simplest yet fundamental wavelet transformations, plays a crucial role in audio signal processing, offering an efficient method for analyzing and compressing audio data. Originating from mathematical transformations known as Haar modifications, the Haar wavelet acts as a model for other wavelet-based transformations. In audio signal processing, wavelet transformations allow us to decompose audio signals into low and high-frequency components, aiding in tasks such as data compression, noise reduction, and efficient transmission over networks. This article explores the application of the Haar wavelet in processing audio signals, particularly focusing on its implementation within the WAV file format widely used format for uncompressed audio data. The WAV format consists of two main parts: the file header, containing metadata like file size and sample rate, and the data chunk, which stores the audio signal values. Using the Haar wavelet algorithm, we can separate the audio signal into its low-frequency (smooth or approximation) and high-frequency (detailed) components. This separation allows for more efficient manipulation and transmission of the audio data, especially in telecommunications systems where minimizing data size without losing quality is critical.

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Publication Details

Published
2024-12-11
DOI
https://doi.org/10.1145/3726122.3726176
Citations
1
Primary Topic
Advanced Computational Techniques in Science and Engineering
Type
article
Field-Weighted Citation Impact
0.78
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article

Algorithms and Software for Speech Processing in Telecommunication

Sanjar Mirzaliev, Bahodir Zaripov, Mamurjon Kuchkorov, Minavvarxon Yunusova et al.
1 citations
Advanced Computational Techniques in Science and Engineering
0.78
article

Algorithms and Software for Speech Processing in Telecommunication

Sanjar Mirzaliev, Bahodir Zaripov, Mamurjon Kuchkorov, Minavvarxon Yunusova, Dilnoza Shabonova
article en
1 citations

Abstract

This article described the use of a wavelet algorithm to audio signal processing in telecommunications. The Haar wavelet, one of the simplest yet fundamental wavelet transformations, plays a crucial role in audio signal processing, offering an efficient method for analyzing and compressing audio data. Originating from mathematical transformations known as Haar modifications, the Haar wavelet acts as a model for other wavelet-based transformations. In audio signal processing, wavelet transformations allow us to decompose audio signals into low and high-frequency components, aiding in tasks such as data compression, noise reduction, and efficient transmission over networks. This article explores the application of the Haar wavelet in processing audio signals, particularly focusing on its implementation within the WAV file format widely used format for uncompressed audio data. The WAV format consists of two main parts: the file header, containing metadata like file size and sample rate, and the data chunk, which stores the audio signal values. Using the Haar wavelet algorithm, we can separate the audio signal into its low-frequency (smooth or approximation) and high-frequency (detailed) components. This separation allows for more efficient manipulation and transmission of the audio data, especially in telecommunications systems where minimizing data size without losing quality is critical.

Tashkent State Transport University (UZ), Tashkent State University of Law (UZ), Tashkent State University of Economics (UZ)
Openalex Percentile: Top 16%
Advanced Computational Techniques in Science and Engineering
0.78
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