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IM-IAD: Industrial Image Anomaly Detection Benchmark in Manufacturing
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Image anomaly detection (IAD) is an emerging and vital computer vision task in industrial manufacturing (IM). Recently, many advanced algorithms have been reported, but their performance deviates considerably with various IM settings. We realize that the lack of a uniform IM benchmark is hindering the development and usage of IAD methods in real-world applications. In addition, it is difficult for researchers to analyze IAD algorithms without a uniform benchmark. To solve this problem, we propose a uniform IM benchmark, for the first time, to assess how well these algorithms perform, which includes various levels of supervision (unsupervised versus fully supervised), learning paradigms (few-shot, continual and noisy label), and efficiency (memory usage and inference speed). Then, we construct a comprehensive image anomaly detection benchmark (IM-IAD), which includes 19 algorithms on seven major datasets with a uniform setting. Extensive experiments (17,017 total) on IM-IAD provide in-depth insights into IAD algorithm redesign or selection. Moreover, the proposed IM-IAD benchmark challenges existing algorithms and suggests future research directions. To foster reproducibility and accessibility, the source code of IM-IAD is uploaded on the website, https://github.com/M-3LAB/IM-IAD.
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Cited by 3 Pith papers
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From Benchmark Performance to Tool Deployment: Human-in-the-Loop Anomaly Detection
On the BowTie manufacturing dataset, 19 unsupervised anomaly detection models show unstable, preprocessing-sensitive performance, and a consensus audit suggests nominal-data contamination affects results.
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Towards Zero-shot 3D Anomaly Localization
3DzAL performs zero-shot 3D anomaly localization by combining contrastive patch learning, a normalcy classifier, and adversarial perturbation on pseudo-anomalies generated from task-irrelevant point clouds.
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FUN-AD: Fully Unsupervised Learning for Anomaly Detection with Noisy Training Data
FUN-AD trains an anomaly detector without any labels by using nearest-neighbor distances in a self-refining memory bank to pseudo-label normal and anomalous patches.
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