Attention Fusion Reverse Distillation for Multi-Lighting Image Anomaly Detection
Yiheng Zhang, Yunkang Cao, Tianhang Zhang, Weiming Shen

TL;DR
This paper introduces Attention Fusion Reverse Distillation (AFRD), a novel method for multi-lighting image anomaly detection that leverages a teacher-student framework with attention-based feature fusion to improve detection accuracy.
Contribution
The paper proposes AFRD, a new approach that effectively handles multiple lighting inputs in anomaly detection using attention fusion and reverse distillation, outperforming existing methods.
Findings
AFRD achieves superior performance on Eyecandies dataset.
Using multiple lighting conditions improves anomaly detection accuracy.
Attention fusion effectively aggregates multi-lighting features.
Abstract
This study targets Multi-Lighting Image Anomaly Detection (MLIAD), where multiple lighting conditions are utilized to enhance imaging quality and anomaly detection performance. While numerous image anomaly detection methods have been proposed, they lack the capacity to handle multiple inputs for a single sample, like multi-lighting images in MLIAD. Hence, this study proposes Attention Fusion Reverse Distillation (AFRD) to handle multiple inputs in MLIAD. For this purpose, AFRD utilizes a pre-trained teacher network to extract features from multiple inputs. Then these features are aggregated into fused features through an attention module. Subsequently, a corresponding student net-work is utilized to regress the attention fused features. The regression errors are denoted as anomaly scores during inference. Experiments on Eyecandies demonstrates that AFRD achieves superior MLIAD…
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Taxonomy
TopicsIndustrial Vision Systems and Defect Detection · Image Processing Techniques and Applications
