TL;DR
This paper introduces a novel blind watermarking framework combining invertible and non-invertible mechanisms to enhance imperceptibility and robustness against noise attacks, outperforming current methods.
Contribution
The proposed CIN framework uniquely integrates invertible and non-invertible modules, including DEM, FSM, NIAM, and NSM, to improve watermarking performance under various noise conditions.
Findings
Achieves 99.99% accuracy and 67.66 dB PSNR in noise-free scenarios.
Maintains 96.64% accuracy and 39.28 dB PSNR under strong noise attacks.
Significantly outperforms existing state-of-the-art watermarking methods.
Abstract
Blind watermarking provides powerful evidence for copyright protection, image authentication, and tampering identification. However, it remains a challenge to design a watermarking model with high imperceptibility and robustness against strong noise attacks. To resolve this issue, we present a framework Combining the Invertible and Non-invertible (CIN) mechanisms. The CIN is composed of the invertible part to achieve high imperceptibility and the non-invertible part to strengthen the robustness against strong noise attacks. For the invertible part, we develop a diffusion and extraction module (DEM) and a fusion and split module (FSM) to embed and extract watermarks symmetrically in an invertible way. For the non-invertible part, we introduce a non-invertible attention-based module (NIAM) and the noise-specific selection module (NSM) to solve the asymmetric extraction under a strong…
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