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Scaling for Training Time and Post-hoc Out-of-distribution Detection Enhancement
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The capacity of a modern deep learning system to determine if a sample falls within its realm of knowledge is fundamental and important. In this paper, we offer insights and analyses of recent state-of-the-art out-of-distribution (OOD) detection methods - extremely simple activation shaping (ASH). We demonstrate that activation pruning has a detrimental effect on OOD detection, while activation scaling enhances it. Moreover, we propose SCALE, a simple yet effective post-hoc network enhancement method for OOD detection, which attains state-of-the-art OOD detection performance without compromising in-distribution (ID) accuracy. By integrating scaling concepts into the training process to capture a sample's ID characteristics, we propose Intermediate Tensor SHaping (ISH), a lightweight method for training time OOD detection enhancement. We achieve AUROC scores of +1.85\% for near-OOD and +0.74\% for far-OOD datasets on the OpenOOD v1.5 ImageNet-1K benchmark. Our code and models are available at https://github.com/kai422/SCALE.
Forward citations
Cited by 3 Pith papers
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Balanced Hyperbolic Embeddings Are Natural Out-of-Distribution Detectors
Norm-balanced, hierarchy-aware hyperbolic prototypes as the classification head improve out-of-distribution detection across many scoring functions and benchmarks.
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Multi-Method Ensemble for Out-of-Distribution Detection
MME, a product of SCALE, VRA, fDBD, PCA, ViM, NME+ and CO+ scores, shows state-of-the-art OOD detection on common benchmarks, with a theoretical guarantee that is weaker than claimed.
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Reliable Few-shot Learning under Dual Noises
DETA++ combines region-weighting, noise-entropy maximization, memory-bank prototypes, and intra-class region swapping to handle both in-distribution and out-of-distribution noise in few-shot learning.
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