FAAG: Fast Adversarial Audio Generation through Interactive Attack Optimisation
Yuantian Miao, Chao Chen, Lei Pan, Jun Zhang, Yang Xiang

TL;DR
FAAG introduces a fast, efficient method for generating targeted adversarial audio examples by focusing noise injection on the beginning of the audio, achieving high success rates with reduced computational resources.
Contribution
The paper presents FAAG, a novel iterative optimization approach that significantly speeds up adversarial audio generation while maintaining high success rates and low resource consumption.
Findings
FAAG reduces generation time by approximately 60% compared to baseline methods.
High success rate of over 85% in targeted adversarial attacks.
Effective defense by appending benign audio to suspicious samples.
Abstract
Automatic Speech Recognition services (ASRs) inherit deep neural networks' vulnerabilities like crafted adversarial examples. Existing methods often suffer from low efficiency because the target phases are added to the entire audio sample, resulting in high demand for computational resources. This paper proposes a novel scheme named FAAG as an iterative optimization-based method to generate targeted adversarial examples quickly. By injecting the noise over the beginning part of the audio, FAAG generates adversarial audio in high quality with a high success rate timely. Specifically, we use audio's logits output to map each character in the transcription to an approximate position of the audio's frame. Thus, an adversarial example can be generated by FAAG in approximately two minutes using CPUs only and around ten seconds with one GPU while maintaining an average success rate over 85%.…
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Taxonomy
TopicsAdversarial Robustness in Machine Learning · Anomaly Detection Techniques and Applications · Electrostatic Discharge in Electronics
