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Smart glasses have become more prevalent as they provide an increasing number of applications for users. They store various types of private information or can access it via connections established with other devices. Therefore, there is a growing need for user identification on smart glasses. In this paper, we introduce a low-power and minimally-obtrusive system called SonicID, designed to authenticate users on glasses. SonicID extracts unique biometric information from users by scanning their faces with ultrasonic waves and utilizes this information to distinguish between different users, powered by a customized binary classifier with the ResNet-18 architecture. SonicID can authenticate users by scanning their face for 0.06 seconds. A user study involving 40 participants confirms that SonicID achieves a true positive rate of 97.4%, a false positive rate of 4.3%, and a balanced accuracy of 96.6% using just 1 minute of training data collected for each new user. This performance is relatively consistent across different remounting sessions and days. Given this promising performance, we further discuss the potential applications of SonicID and methods to improve its performance in the future.more » « lessFree, publicly-accessible full text available November 21, 2025
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Mahmud, Saif; Parikh, Vineet; Liang, Qikang; Li, Ke; Zhang, Ruidong; Ajit, Ashwin; Gunda, Vipin; Agarwal, Devansh; Guimbretiere, Francois; Zhang, Cheng (, Proceedings of the ACM on Interactive, Mobile, Wearable and Ubiquitous Technologies)We present ActSonic, an intelligent, low-power active acoustic sensing system integrated into eyeglasses that can recognize 27 different everyday activities (e.g., eating, drinking, toothbrushing) from inaudible acoustic waves around the body. It requires only a pair of miniature speakers and microphones mounted on each hinge of the eyeglasses to emit ultrasonic waves, creating an acoustic aura around the body. The acoustic signals are reflected based on the position and motion of various body parts, captured by the microphones, and analyzed by a customized self-supervised deep learning framework to infer the performed activities on a remote device such as a mobile phone or cloud server. ActSonic was evaluated in user studies with 19 participants across 19 households to track its efficacy in everyday activity recognition. Without requiring any training data from new users (leave-one-participant-out evaluation), ActSonic detected 27 activities, achieving an average F1-score of 86.6% in fully unconstrained scenarios and 93.4% in prompted settings at participants' homes.more » « lessFree, publicly-accessible full text available November 21, 2025
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Lee, Chi-Jung; Zhang, Ruidong; Agarwal, Devansh; Yu, Tianhong Catherine; Gunda, Vipin; Lopez, Oliver; Kim, James; Yin, Sicheng; Dong, Boao; Li, Ke; et al (, ACM)
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