Safe and Robust Watermark Injection with a Single OoD Image
Shuyang Yu, Junyuan Hong, Haobo Zhang, Haotao Wang, Zhangyang Wang and, Jiayu Zhou

TL;DR
This paper introduces a novel watermarking method for deep neural networks that uses a single out-of-distribution image as a secret key, ensuring data privacy, robustness against attacks, and efficiency without requiring training data.
Contribution
It presents a safe, robust, and data-agnostic watermarking technique leveraging a single OoD image and parameter perturbation for IP protection in neural networks.
Findings
Effective watermark verification using a single OoD image.
Robustness against fine-tuning, pruning, and model extraction attacks.
Time- and sample-efficient without training data.
Abstract
Training a high-performance deep neural network requires large amounts of data and computational resources. Protecting the intellectual property (IP) and commercial ownership of a deep model is challenging yet increasingly crucial. A major stream of watermarking strategies implants verifiable backdoor triggers by poisoning training samples, but these are often unrealistic due to data privacy and safety concerns and are vulnerable to minor model changes such as fine-tuning. To overcome these challenges, we propose a safe and robust backdoor-based watermark injection technique that leverages the diverse knowledge from a single out-of-distribution (OoD) image, which serves as a secret key for IP verification. The independence of training data makes it agnostic to third-party promises of IP security. We induce robustness via random perturbation of model parameters during watermark injection…
Peer Reviews
Decision·ICLR 2024 poster
IP Protection: The paper addresses the challenge of protecting the intellectual property of deep neural networks, which is increasingly crucial in the field. It has attracted increasing attentions in the literature, especially in the era of foundation models. This paper considers an important problem, potentially having large impact to the community. Safe and Robust Technique: The proposed technique claims to be safe and robust. It leverages a single out-of-distribution (OoD) image as a secret
Training time watermarked data will have some distribution discrepancy over test situations, thus one cannot ensure the performance of watermarking. It seems that such an issue remains an open question in IP protection, so more discussion about "how to handle such a problem" or "is it an important issue in the literature" can be formally discussed. Do more data points, other than just one point, will lead to more contributions to the watermarking strategy? Experimental verification and heurist
The proposed approach is interesting, and the paper is easy to follow.
1. The authors do not give a comprehensive discussion of previous work on this topic. 2. The experimental justification of this work is not sufficient, only compared to the basic backdoor-based strategy.
The main strength of this paper is the proposal of a novel technique for protecting the intellectual property of deep models using a single out-of-distribution (OoD) image as a secret key. The proposed technique is robust against watermark removal attacks and does not require poisoning training samples. The paper has great clarity and is easy to follow. The proposed technique looks promising for protecting the commercial ownership of deep models, which require large amounts of data and computati
Relying on a single OoD image as a secret key might introduce vulnerabilities. If an adversary gains access to this single image, the watermarking scheme could be compromised. Using multiple OoD images or a combination of techniques might enhance security? It is unclear why specific trigger patterns are well suited for specific dataset. Further, it would be interesting to see how the watermarking technique performs when models are transferred across different tasks or domains. The watermark mi
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Taxonomy
TopicsAdversarial Robustness in Machine Learning · Advanced Neural Network Applications · Digital Media Forensic Detection
