TeD-SPAD: Temporal Distinctiveness for Self-supervised Privacy-preservation for video Anomaly Detection
Joseph Fioresi, Ishan Rajendrakumar Dave, Mubarak Shah

TL;DR
TeD-SPAD introduces a self-supervised framework that enhances video anomaly detection by protecting privacy through temporally-distinctive features, balancing privacy and detection accuracy.
Contribution
It proposes a novel temporally-distinct triplet loss for privacy-aware video anomaly detection, improving privacy protection while maintaining detection performance.
Findings
Reduces private attribute prediction by 32.25%.
Loses only 3.69% in frame-level ROC AUC on UCF-Crime.
Achieves a positive trade-off between privacy and utility.
Abstract
Video anomaly detection (VAD) without human monitoring is a complex computer vision task that can have a positive impact on society if implemented successfully. While recent advances have made significant progress in solving this task, most existing approaches overlook a critical real-world concern: privacy. With the increasing popularity of artificial intelligence technologies, it becomes crucial to implement proper AI ethics into their development. Privacy leakage in VAD allows models to pick up and amplify unnecessary biases related to people's personal information, which may lead to undesirable decision making. In this paper, we propose TeD-SPAD, a privacy-aware video anomaly detection framework that destroys visual private information in a self-supervised manner. In particular, we propose the use of a temporally-distinct triplet loss to promote temporally discriminative features,…
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Taxonomy
TopicsAnomaly Detection Techniques and Applications · COVID-19 diagnosis using AI · Data-Driven Disease Surveillance
MethodsTriplet Loss
