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Voice Spoofing Detection Through Residual Network, Max Feature Map, and Depthwise Separable Convolutionopen access

Authors
Kwak, Il-YoupKwag, SungsuLee, JunheeJeon, YoungbaeHwang, JeonghwanChoi, Hyo-JungYang, Jong-HoonHan, So-YulHuh, Jun HoLee, Choong-HoonYoon, Ji Won
Issue Date
2023
Publisher
Institute of Electrical and Electronics Engineers Inc.
Keywords
Voice assistant security; voice presentation attack detection; voice spoofing attack; voice synthesis attack
Citation
IEEE Access, v.11, pp 49140 - 49152
Pages
13
Journal Title
IEEE Access
Volume
11
Start Page
49140
End Page
49152
URI
https://scholarworks.bwise.kr/cau/handle/2019.sw.cau/69709
DOI
10.1109/ACCESS.2023.3275790
ISSN
2169-3536
Abstract
The goal of the '2019 Automatic Speaker Verification Spoofing and Countermeasures Challenge' (ASVspoof) was to make it easier to create systems that could identify voice spoofing attacks with high levels of accuracy. However, model complexity and latency requirements were not emphasized in the competition, despite the fact that they are stringent requirements for implementation in the real world. The majority of the top-performing solutions from the competition used an ensemble technique that merged numerous sophisticated deep learning models to maximize detection accuracy. Those approaches struggle with real-world deployment restrictions for voice assistants which would have restricted resources. We merged skip connection (from ResNet) and max feature map (from Light CNN) to create a compact system, and we tested its performance using the ASVspoof 2019 dataset. Our single model achieved a replay attack detection equal error rate (EER) of 0.30% on the evaluation set using an optimized constant Q transform (CQT) feature, outperforming the top ensemble system in the competition, which scored an EER of 0.39%. We experimented using depthwise separable convolutions (from MobileNet) to reduce model sizes; this resulted in an 84.3 percent reduction in parameter count (from 286K to 45K), while maintaining similar performance (EER of 0.36%). Additionally, we used Grad-CAM to clarify which spectrogram regions significantly contribute to the detection of fake data. © 2013 IEEE.
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대학원 (통계데이터사이언스학과)
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