Advancing Robustness and Granularity in Anomaly Detection

The recent advancements in anomaly detection research are primarily focused on enhancing robustness and adaptability to real-world scenarios, particularly in the face of distribution shifts and multi-object complexities. Innovations are being driven by the need to redefine normality at more granular levels, such as object-level definitions, and to develop methods that can effectively handle the inherent challenges of 3D data and multi-sensor inputs. Techniques like adaptive mask-inpainting, point offset learning, and coarse-knowledge-aware adversarial learning are emerging as powerful tools for improving detection accuracy and localization. Additionally, the integration of multi-sensor data is proving crucial for capturing a broader range of anomaly types, thereby advancing industrial quality inspection. Notable contributions include methods that redefine normality at the object level, adaptive mask-inpainting networks for industrial applications, and multi-sensor fusion algorithms that significantly enhance detection accuracy.

Sources

Filter or Compensate: Towards Invariant Representation from Distribution Shift for Anomaly Detection

Redefining Normal: A Novel Object-Level Approach for Multi-Object Novelty Detection

AMI-Net: Adaptive Mask Inpainting Network for Industrial Anomaly Detection and Localization

PO3AD: Predicting Point Offsets toward Better 3D Point Cloud Anomaly Detection

Boosting Fine-Grained Visual Anomaly Detection with Coarse-Knowledge-Aware Adversarial Learning

ORFormer: Occlusion-Robust Transformer for Accurate Facial Landmark Detection

Look Inside for More: Internal Spatial Modality Perception for 3D Anomaly Detection

Multi-Sensor Object Anomaly Detection: Unifying Appearance, Geometry, and Internal Properties

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