FEATURE EXTRACTION USING I-VECTOR AND X-VECTOR METHODS FOR SPEAKER DIARIZATION

Speaker diarization is the process of identifying who is speaking at different times in audio recordings. This is important in various situations, such as recording meetings, monitoring calls in call centers, or analyzing media. In this paper, examine how well different methods for speaker diarization perform in real-life scenarios. focus on two modern techniques: I-vectors and X-vectors. I-vectors are effective for automatic speaker recognition because they create compact and efficient representations of speakers using statistical models. However, they struggle in situations involving overlapping voices or background noise. On the other hand, X-vectors overcome these limitations. They use deep neural networks to create more complex and reliable representations, making them better suited for challenging conditions. To evaluate these two approaches, used standard datasets, specifically the AMI Meeting Corpus and VoxCeleb. measured their performance using two indicators: Diarization Error Rate (DER) and Jaccard Error Rate (JER). Results show that while I-vectors are less resource- intensive and work well in ideal conditions, X-vectors perform better in real-world settings where noise and overlapping speech are present. This study provides guidance for practitioners in choosing the right approach based on their needs, considering factors such as accuracy, computational costs, and reliability.

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Publication Details

Journal
ICTACT Journal on Soft Computing
Published
2025-01-01
DOI
https://doi.org/10.21917/ijsc.2025.0515
Primary Topic
Speech Recognition and Synthesis
Type
article
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article

FEATURE EXTRACTION USING I-VECTOR AND X-VECTOR METHODS FOR SPEAKER DIARIZATION

Sangramsing Kayte, Vijay K. Kale, Vinod Kumar Pande
ICTACT Journal on Soft Computing
Speech Recognition and Synthesis
article

FEATURE EXTRACTION USING I-VECTOR AND X-VECTOR METHODS FOR SPEAKER DIARIZATION

Sangramsing Kayte, Vijay K. Kale, Vinod Kumar Pande
article en

Abstract

Speaker diarization is the process of identifying who is speaking at different times in audio recordings. This is important in various situations, such as recording meetings, monitoring calls in call centers, or analyzing media. In this paper, examine how well different methods for speaker diarization perform in real-life scenarios. focus on two modern techniques: I-vectors and X-vectors. I-vectors are effective for automatic speaker recognition because they create compact and efficient representations of speakers using statistical models. However, they struggle in situations involving overlapping voices or background noise. On the other hand, X-vectors overcome these limitations. They use deep neural networks to create more complex and reliable representations, making them better suited for challenging conditions. To evaluate these two approaches, used standard datasets, specifically the AMI Meeting Corpus and VoxCeleb. measured their performance using two indicators: Diarization Error Rate (DER) and Jaccard Error Rate (JER). Results show that while I-vectors are less resource- intensive and work well in ideal conditions, X-vectors perform better in real-world settings where noise and overlapping speech are present. This study provides guidance for practitioners in choosing the right approach based on their needs, considering factors such as accuracy, computational costs, and reliability.

ICTACT Journal on Soft ComputingVol. 15(4)
Openalex Percentile: Top 97%
Speech Recognition and Synthesis
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