2022
DOI: 10.3390/app12199780
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SSDeN: Framework for Screen-Shooting Resilient Watermarking via Deep Networks in the Frequency Domain

Abstract: Mobile devices have been increasingly used to take pictures without leaving a trace. However, the application system can lead to confidential information leaks. A framework for screen-shooting-resilient watermarking via deep networks (SSDeN) in the frequency domain is put forward in this study to solve this problem. The proposed framework can extract the watermark from the leaked photo for copyright protection. SSDeN is an end-to-end process that combines convolutional neural network (CNN) with residual block … Show more

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Cited by 11 publications
(5 citation statements)
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“…The third row represents the difference images between the watermarked image and the noisy image. The residual diagram I re between watermarked image and noisy images can be calculated from Equation (7) as follows:…”
Section: Network Training Speed Comparisonmentioning
confidence: 99%
See 1 more Smart Citation
“…The third row represents the difference images between the watermarked image and the noisy image. The residual diagram I re between watermarked image and noisy images can be calculated from Equation (7) as follows:…”
Section: Network Training Speed Comparisonmentioning
confidence: 99%
“…DLM can find the feature points that contain the image watermark in the case of screenshot attack on the image. Additionally, Li et al [7] added an anti-screenshot noise layer to the end-to-end DLM. The noise layer is presented between the encoder and decoder and used to simulate possible attacks on watermarked images.…”
Section: Introductionmentioning
confidence: 99%
“…Transform Domain: Bai et al [139] introduced a separable noise layer over the DCT domain in the embedding and extraction layers to simulate screen-shooting attacks. SSIMbased loss functions were introduced to improve imperceptibility.…”
Section: Specific Decoder Trainingmentioning
confidence: 99%
“…Liu [114] Zhang [122] Jia [117] Ma [120] Zhong [123] Chen [142] Xu [143] Two-stage Luo [144] Zhang [145] One-stage End-to-end Screen-shooting Mellimi [109] Zhang [122] Zhong [123] Wang [124] Zhang [119] Fang [125] Improved Distoration Simulation Jia [135] Fang [136] Yoo [137] Tancik [138] Fang [126] Pramila [129] Gugelmann [130] Dong [131] Bai [132] Lu [133] Boujerfaoui [134] Fang [127] Transform Domain…”
Section: Specific Decoder Trainingmentioning
confidence: 99%
“…Transform Domain: Bai et al [132] introduced a separable noise layer over the DCT domain in the embedding and extraction layers to simulate screen-shooting attacks. SSIM-based loss functions was introduced to improve imperceptibility.…”
Section: Specific Decoder Trainingmentioning
confidence: 99%