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HVS-based scalable video watermarking

Video copyright protection against scalable coding using motion trajectory analysis in k(\(\hbox {t}+2\hbox {D}\))DWT domain

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Abstract

Scalable coding methods are widely considered as promising coding approaches for image/video transmission in heterogeneous environments. To copyright protection of scalable coded videos, scalable video watermarking was introduced which enables reconstructing various scales of watermark from watermarked videos. This paper proposes a novel human vision system-based, spread spectrum method to scalable video watermarking. The host video is decomposed using newly proposed spatio-temporal motion-compensated 3D wavelet decomposition, called k(\(\hbox {t}+2\hbox {D}\)) DWT decomposition, to frequency sub-bands. A scalable decomposition of the watermark is inserted into the entire frequency sub-bands of decomposed video. At each frequency sub-band, the watermark data are inserted into the selected coefficients of the sub-band frames in a way that the watermark embedding visual artifact occurs in the highly textured, highly contrasted, and very dark/bright areas of the video frames. The experimental results show that the watermarked test videos are highly transparent and robust against scalable video coding even at very low decoding bit-rates and some other video processing attacks. The proposed approach can guarantee copyright protection for scalable coded videos, especially over heterogeneous networks.

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Correspondence to Majid Meghdadi.

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Communicated by L. Zhou.

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Deljavan Amiri, M., Amiri, A. & Meghdadi, M. HVS-based scalable video watermarking. Multimedia Systems 25, 273–291 (2019). https://doi.org/10.1007/s00530-019-00604-0

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