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A Spatial Domain Quantum Watermarking Scheme

A Spatial Domain Quantum Watermarking Scheme
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摘要 This paper presents a spatial domain quantum watermarking scheme. For a quantum watermarking scheme,a feasible quantum circuit is a key to achieve it. This paper gives a feasible quantum circuit for the presented scheme. In order to give the quantum circuit, a new quantum multi-control rotation gate, which can be achieved with quantum basic gates, is designed. With this quantum circuit, our scheme can arbitrarily control the embedding position of watermark images on carrier images with the aid of auxiliary qubits. Besides reversely acting the given quantum circuit, the paper gives another watermark extracting algorithm based on quantum measurements. Moreover, this paper also gives a new quantum image scrambling method and its quantum circuit. Differ from other quantum watermarking schemes, all given quantum circuits can be implemented with basic quantum gates. Moreover, the scheme is a spatial domain watermarking scheme, and is not based on any transform algorithm on quantum images. Meanwhile, it can make sure the watermark be secure even though the watermark has been found. With the given quantum circuit, this paper implements simulation experiments for the presented scheme. The experimental result shows that the scheme does well in the visual quality and the embedding capacity. This paper presents a spatial domain quantum watermarking scheme. For a quantum watermarking scheme,a feasible quantum circuit is a key to achieve it. This paper gives a feasible quantum circuit for the presented scheme. In order to give the quantum circuit, a new quantum multi-control rotation gate, which can be achieved with quantum basic gates, is designed. With this quantum circuit, our scheme can arbitrarily control the embedding position of watermark images on carrier images with the aid of auxiliary qubits. Besides reversely acting the given quantum circuit, the paper gives another watermark extracting algorithm based on quantum measurements. Moreover, this paper also gives a new quantum image scrambling method and its quantum circuit. Differ from other quantum watermarking schemes, all given quantum circuits can be implemented with basic quantum gates. Moreover, the scheme is a spatial domain watermarking scheme, and is not based on any transform algorithm on quantum images. Meanwhile, it can make sure the watermark be secure even though the watermark has been found. With the given quantum circuit, this paper implements simulation experiments for the presented scheme. The experimental result shows that the scheme does well in the visual quality and the embedding capacity.
出处 《Communications in Theoretical Physics》 SCIE CAS CSCD 2016年第7期66-76,共11页 理论物理通讯(英文版)
基金 Supported by the National Natural Science Foundation of China under Grant Nos.61272514,61170272,61373131,61121061,61411146001 the program for New Century Excellent Talents under Grant No.NCET-13-0681 the National Development Foundation for Cryptological Research(Grant No.MMJJ201401012) the Fok Ying Tung Education Foundation under Grant No.131067 the Shandong Provincial Natural Science Foundation of China under Grant No.ZR2013FM025
关键词 空间域水印 量子电路 数字水印 嵌入位置 仿真实验 量子比特 载体图像 水印图像 quantum cryptography quantum images quantum watermark spatial domain quantum watermark
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参考文献29

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