Challenges
Datasets
Workspaces
Papers
Discussions
Leaderboard
Log inSign up
Challenges
Datasets
Workspaces
Papers
Discussions
Leaderboard
Blog
Job Board
Q3AS

© 2026 Aqora Quantum S.A.S.

TermsPrivacyLegal Notice

International Journal of Theoretical Physics

Quantum Image Encryption Based on Quantum Image Decomposition

Jinlei Zhang, Zhijie Huang, Xiang Li, Mingqiu Wu, Xiaoyu Wang, Yumin Dong

Published Jul 6, 2021• 33 citations
Publisher
DOI
10.1007/s10773-021-04862-5

Related papers

Quantum Image Encryption Algorithm Based on Image Correlation Decomposition

Tian-Xiang Hua, Jiamin Chen, Dongju Pei +2 more

International Journal of Theoretical Physics•Aug 8, 2014•88 citations

Quantum Multi-Image Encryption Based on Iteration Arnold Transform with Parameters and Image Correlation Decomposition

Yiqun Hu, Xinwen Xie, Xingbin Liu +1 more

International Journal of Theoretical Physics•Apr 6, 2017•17 citations

Quantum Image Encryption Algorithm Based on Quantum Key Image

Jian Wang, Ya-Cong Geng, Lei Han +1 more

International Journal of Theoretical Physics•Oct 16, 2018•68 citations

Asymmetric image encryption and authentication in interference-based scheme using random modulus decomposition

Guangyu Luan, Dongxin Wang, Caojun Huang

A scheme for asymmetric image encryption and authentication based on interference is proposed here by using sparse representation and random modulus decomposition. An original image is encoded into a complex value image in the Fresnel domain and then sparsely sampled to acquire the sparse spectrum. The sparse spectrum generates four phase-only masks using random modulus decomposition and the interference principle. No information concerning the original image, including its silhouette, can be extracted even if one, two, or three of the four phase-only masks are used for decryption. The parameters of random modulus decomposition provide additional keys for further strengthening the security of our scheme, and the four phase-only masks are all employed for decryption and authentication. Numerical simulations are used to verify the feasibility and security of this scheme.

Journal of Modern Optics•Oct 6, 2020•2 citations

Quantum Image Encryption Algorithm Based on Quantum Image XOR Operations

Li-Hua Gong, Xiang-Tao He, Shan Jen Cheng +2 more

International Journal of Theoretical Physics•Mar 8, 2016•99 citations

A quantum image encryption-authentication method using quantum Haar wavelet transform and affine transform

Pingping Zeng, Jia-Wen Wu, Ming-Xuan Chen +1 more

The quantum image encryption and authentication algorithm are proposed based on quantum affine transformation and quantum Haar wavelet transform. This algorithm is divided into two main steps: encryption and embedding. During the encryption phase, affine transform and Hénon map are combined to carry out scrambling-diffusion processing on the plaintext image. In the phase of embedding, the color carrier image undergoes decomposition using the quantum Haar wavelet transform. Then the ciphertext image information and identity information are hidden into the wavelet domain of the color carrier image, and the final transmitted image has visual significance. The suggested algorithm significantly minimizes the risk of image data compromise during transmission and realizes the dual security of encryption and authentication. The security and the robustness of the algorithm are analyzed by using the evaluation indexes of image encryption and information hiding. The findings indicate that the introduced algorithm offers superior security compared to alternative methods, ensuring a more dependable and safeguarded transmission of image data.

Optica Applicata•Jan 26, 2026•0 citations
A scheme for asymmetric image encryption and authentication based on interference is proposed here by using sparse representation and random modulus decomposition. An original image is encoded into a complex value image in the Fresnel domain and then sparsely sampled to acquire the sparse spectrum. The sparse spectrum generates four phase-only masks using random modulus decomposition and the interference principle. No information concerning the original image, including its silhouette, can be extracted even if one, two, or three of the four phase-only masks are used for decryption. The parameters of random modulus decomposition provide additional keys for further strengthening the security of our scheme, and the four phase-only masks are all employed for decryption and authentication. Numerical simulations are used to verify the feasibility and security of this scheme.
The quantum image encryption and authentication algorithm are proposed based on quantum affine transformation and quantum Haar wavelet transform. This algorithm is divided into two main steps: encryption and embedding. During the encryption phase, affine transform and Hénon map are combined to carry out scrambling-diffusion processing on the plaintext image. In the phase of embedding, the color carrier image undergoes decomposition using the quantum Haar wavelet transform. Then the ciphertext image information and identity information are hidden into the wavelet domain of the color carrier image, and the final transmitted image has visual significance. The suggested algorithm significantly minimizes the risk of image data compromise during transmission and realizes the dual security of encryption and authentication. The security and the robustness of the algorithm are analyzed by using the evaluation indexes of image encryption and information hiding. The findings indicate that the introduced algorithm offers superior security compared to alternative methods, ensuring a more dependable and safeguarded transmission of image data.