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Reconstructing Training Data From Real World Models Trained with Transfer Learning
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Current methods for reconstructing training data from trained classifiers are restricted to very small models, limited training set sizes, and low-resolution images. Such restrictions hinder their applicability to real-world scenarios. In this paper, we present a novel approach enabling data reconstruction in realistic settings for models trained on high-resolution images. Our method adapts the reconstruction scheme of arXiv:2206.07758 to real-world scenarios -- specifically, targeting models trained via transfer learning over image embeddings of large pre-trained models like DINO-ViT and CLIP. Our work employs data reconstruction in the embedding space rather than in the image space, showcasing its applicability beyond visual data. Moreover, we introduce a novel clustering-based method to identify good reconstructions from thousands of candidates. This significantly improves on previous works that relied on knowledge of the training set to identify good reconstructed images. Our findings shed light on a potential privacy risk for data leakage from models trained using transfer learning.
Forward citations
Cited by 2 Pith papers
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Querying Kernel Methods Suffices for Reconstructing their Training Data
Query-only access to kernel regression, SVM and KDE models suffices to reconstruct their exact training points, via a measure-theoretic proof and image experiments.
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On the Reconstruction of Training Data from Group Invariant Networks
Reconstruction from group-invariant networks collapses toward the orbit-average input, and two modified methods (SAME-GD, deep image prior) reduce this collapse in preliminary MNIST experiments.
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