Online Monitoring Framework for Automotive Time Series Data using JEPA Embeddings
Alexander Fertig, Karthikeyan Chandra Sekaran, Lakshman Balasubramanian, Michael Botsch

TL;DR
This paper introduces an online anomaly detection framework for autonomous vehicle data using self-supervised JEPA embeddings, enabling detection of unknown anomalies without labeled data, demonstrated on the nuScenes dataset.
Contribution
It presents a novel self-supervised embedding approach with JEPA for anomaly detection in vehicle data, addressing the challenge of unlabeled, unknown anomalies in real-time systems.
Findings
Effective anomaly detection on nuScenes dataset
Self-supervised JEPA embeddings improve detection accuracy
Framework operates without labeled anomaly data
Abstract
As autonomous vehicles are rolled out, measures must be taken to ensure their safe operation. In order to supervise a system that is already in operation, monitoring frameworks are frequently employed. These run continuously online in the background, supervising the system status and recording anomalies. This work proposes an online monitoring framework to detect anomalies in object state representations. Thereby, a key challenge is creating a framework for anomaly detection without anomaly labels, which are usually unavailable for unknown anomalies. To address this issue, this work applies a self-supervised embedding method to translate object data into a latent representation space. For this, a JEPA-based self-supervised prediction task is constructed, allowing training without anomaly labels and the creation of rich object embeddings. The resulting expressive JEPA embeddings serve as…
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Taxonomy
TopicsAnomaly Detection Techniques and Applications · Time Series Analysis and Forecasting · Autonomous Vehicle Technology and Safety
