ICML 2023 Papers

International Conference on Machine Learning

Decision breakdown

1,865papers

Counted from the official paper list; may differ slightly from the number the conference announced.

  • Oral
    1558.3%
  • Poster
    1,71091.7%

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Trapdoor Normalization with Irreversible Ownership Verification

Hanwen Liu, Zhenyu Weng, Yuesheng Zhu, Yadong Mu

Expand abstract

This paper introduces a deep model watermark with an irreversible ownership verification scheme: Trapdoor Normalization (TdN), inspired by the trapdoor function in traditional cryptography. To protect intellectual property within deep models, the proposed method is able to embed ownership information into normalization layers during training. We argue and empirically validate that relevant methods are vulnerable to ambiguity attacks, where the forged watermarks can cast ambiguity over the ownership verification. The primary trait that distinguishes this work from previous ones, is its design of a bidirectional connection between watermarks and deep models. Thereby, TdN enables an irreversible ownership verification scheme that is difficult for the adversary to compromise. In this way, the proposed TdN can effectively defeat ambiguity attacks. Extensive experiments demonstrate that the proposed method is not only superior to previous state-of-the-art methods in robustness, but also has better efficiency.

Poster
Data-Copying in Generative Models: A Formal Framework

Robi Bhattacharjee, Sanjoy Dasgupta, Kamalika Chaudhuri

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There has been some recent interest in detecting and addressing memorization of training data by deep neural networks. A formal framework for memorization in generative models, called ``data-copying'' was proposed by Meehan et. al (2020). We build upon their work to show that their framework may fail to detect certain kinds of blatant memorization. Motivated by this and the theory of non-parametric methods, we provide an alternative definition of data-copying that applies more locally. We provide a method to detect data-copying, and provably show that it works with high probability when enough data is available. We also provide lower bounds that characterize the sample requirement for reliable detection.

Poster