ErasableMask: A Robust and Erasable Privacy Protection Scheme against Black-box Face Recognition Models
Sipeng Shen, Yunming Zhang, Dengpan Ye, Xiuwen Shi, Long Tang, Haoran Duan, Yueyun Shang, Zhihong Tian

TL;DR
ErasableMask is a novel privacy protection scheme that creates erasable, transferable adversarial perturbations against black-box face recognition models, balancing robustness and privacy with high success rates.
Contribution
It introduces a meta-auxiliary attack and perturbation erasion mechanism, enhancing transferability and erasure capabilities in face privacy protection.
Findings
Achieves over 72% confidence in commercial FR systems
Over 90% success rate in perturbation erasion
Outperforms existing methods in transferability and erasure
Abstract
While face recognition (FR) models have brought remarkable convenience in face verification and identification, they also pose substantial privacy risks to the public. Existing facial privacy protection schemes usually adopt adversarial examples to disrupt face verification of FR models. However, these schemes often suffer from weak transferability against black-box FR models and permanently damage the identifiable information that cannot fulfill the requirements of authorized operations such as forensics and authentication. To address these limitations, we propose ErasableMask, a robust and erasable privacy protection scheme against black-box FR models. Specifically, via rethinking the inherent relationship between surrogate FR models, ErasableMask introduces a novel meta-auxiliary attack, which boosts black-box transferability by learning more general features in a stable and…
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Taxonomy
TopicsFace recognition and analysis · Biometric Identification and Security
MethodsADaptive gradient method with the OPTimal convergence rate
