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International Journal of Scientific and Technological Research

Secure Transmission of 3D-QRMW Quantum Images via Quantum Fourier Transform in Blind Cloud

Omer Dogan, İhsan Yılmaz

Published May 1, 2019• 0 citations
Publisher

Abstract

This study explores three-dimensional multi-channel quantum image representation model (3D-QRMW) which can be used in many fields such as three-dimensional medical imaging, atomic imaging, and infrared images. Quantum images are transmited between participants by Quantum Fourier Transform (QFT) in which output qubits are reordered by blind Cloud with permutation. Also key with length K=16N is applied to share signature for recipients. This allows all members to know only their signature information. Security analyzes show that quantum images in the model of 3D-QRMW are transmitted safely. Keywords : 3D quantum image, Security of 3D quantum image, Blind Cloud, Quantum Fourier. DOI : 10.7176/JSTR/5-5-12

DOI
10.7176/jstr/5-5-12

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This study explores three-dimensional multi-channel quantum image representation model (3D-QRMW) which can be used in many fields such as three-dimensional medical imaging, atomic imaging, and infrared images. Quantum images are transmited between participants by Quantum Fourier Transform (QFT) in which output qubits are reordered by blind Cloud with permutation. Also key with length K=16N is applied to share signature for recipients. This allows all members to know only their signature information. Security analyzes show that quantum images in the model of 3D-QRMW are transmitted safely. Keywords : 3D quantum image, Security of 3D quantum image, Blind Cloud, Quantum Fourier. DOI : 10.7176/JSTR/5-5-12
In this study, the security of Novel Enhanced Quantum Representation (NEQR) of quantum images are suggested by using the Quantum Fourier Transform (QFT) with blind trent. In the protocol, QFT and keys are used to share signature with recipients. So all members know only their signature information which are encrypted output of the QFT. This improves the security of the protocol. In addition, the security of the protocol is provided by using reorder QFT output qubits with permutation of the blind trent. The security analysis expresses security of the transfer of the image with effective secret key usage.
In this study, the security of Novel Enhanced Quantum Representation NEQR of quantum images are suggested by using the Quantum FourierTransform QFT with blind trent. In the protocol, QFT and key are usedto share signature with recipients. So all members know only their signatureinformation which are encrypted output of the QFT. This improves thesecurity of the protocol. In addition, the security of the protocol is providedby using reorder QFT output qubits with permutation of the blind trent.The security analysis expresses security of the transfer of the image withefective secret key usage.
Ensuring the secure storage and sharing of medical records in the cloud is increasingly crucial due to vulnerabilities in classical encryption methods, such as key manipulation and cloud collusion. This paper introduces a novel quantum-based approach using Quantum Fourier Transform (QFT) and Unitary operators. We designed three quantum circuits for different image sizes: one for the Unitary operator, one for encryption, and one for decryption. DICOM images are first transformed into quantum images with the NEQR algorithm, then encrypted using a Unitary operator, which serves as the encryption key. This key is securely transmitted via quantum teleportation, enhancing protection against classical and quantum attacks. Extensive simulations show the method's effectiveness and robustness in safeguarding medical data during cloud storage and transmission. This makes it a promising solution for secure medical image sharing in quantum communication networks.
In this study, quantum proxy group signature protocol based on the Quantum Fourier Transformation(QF T) is suggested. In this protocol, QF T is used to share signature with group members. So all proxy group members know only their part of the signature information which are encrypted output of the QF T. This improves the security of the protocol. In addition, the security of the quantum proxy group signature is provided by using reorder QF T output qubits with permutation of the Trent,blinded and nonblinded . The security analysis expresses higher efficiency, effective secret key usage and security of the proposed protocol.
ABSTRACT As quantum technology advances, classical digital signatures exhibit vulnerabilities in preserving security properties during the transmission of information. Working toward a reliable communication protocol, we introduce a proxy blind signature scheme to teleport a single particle qubit state with a message to the receiver, employing a three qubit GHZ entangled state. The blindness property is utilized to secure the message information from the proxy signer. A trusted party, Trent, is introduced to supervise the communication process. Alice blinds the original message and sends the Bell measurements with her entangled particle to proxy signer Charlie. After receiving measurements from Alice and Charlie, Bob verifies the proxy blind signature and performs appropriate unitary operations on his particle. Thereafter, Trent verifies the security of the quantum teleportation setup by matching the output data with the original data sent by Alice. Security analysis results prove that the proposed scheme fulfils the basic security necessities, including undeniability, unforgeability, blindness, verifiability, and traceability.
In this study, we propose quantum representation of multiwavelength images (QRMW) that gives preparation and retrieving procedures of quantum images. The proposed QRMW model represents multichannel and 2n×2m2^{n}\times 2^{m}2n×2m images. Moreover, we present image comparison and some image operations based on the QRMW model. Comparing our model with the models in the literature, the QRMW model has less time complexity. It also uses fewer qubits than existing models in the literature.