Robust text-dependent speaker verification system using gender aware Siamese-Triplet Deep Neural Network
View abstract on PubMed
Summary
This summary is machine-generated.This study introduces a Gender-Aware Siamese-Triplet Network-Deep Neural Network (ST-DNN) for improved speaker verification. The novel architecture significantly reduces error rates, enhancing security in voice authentication systems.
Area Of Science
- Speech processing
- Machine learning
- Biometrics
Background
- Text-dependent speaker verification is crucial for security but challenged by voice variations.
- Existing methods struggle with linguistic diversity and gender-specific pitch differences, impacting accuracy.
Purpose Of The Study
- To introduce a Gender-Aware Siamese-Triplet Network-Deep Neural Network (ST-DNN) for enhanced speaker verification.
- To address challenges in speaker authentication caused by voice quality, linguistic diversity, and gender differences.
Main Methods
- Utilized Convolutional 2D layers with ReLU activation for feature extraction.
- Implemented multi-fusion dense skip connections and batch normalization for feature integration.
- Employed separate male and female ST-DNN models, incorporating Individual, Siamese, and Triplet Networks.
Main Results
- Achieved significant reductions in Equal Error Rate (EER) for males (32.31%–54.55%) and females (33.73%–38.98%).
- Demonstrated substantial reductions in Minimum Decision Cost Function (MinDCF) for males (53.47%–86.36%) and females (39.46%–71.19%).
- Validated the ST-DNN architecture's efficacy on RSR2015 and RedDots Challenge 2016 datasets.
Conclusions
- The Gender-Aware ST-DNN architecture effectively improves text-dependent speaker verification accuracy.
- The proposed method robustly handles variations in voice quality, linguistic diversity, and gender-specific characteristics.
- Results confirm the ST-DNN's suitability for real-world high-security voice authentication applications.
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