A random local phase encoding method is presented for encrypting a secret image. Some random polygons are introduced to control the local regions of random phase encoding. The data located in the random polygon is encoded by random phase encoding. The random phase data is the main key in this encryption method. The different random phases calculated by using a monotonous function are employed. The random data defining random polygon serves as an additional key for enhancing the security of the image encryption scheme. Numerical simulations are given for demonstrating the performance of the proposed encryption approach. (C) 2012 Elsevier B.V. All rights reserved
A number of methods have recently been proposed in the literature for the encryption of two-dimensio...
In this paper image cryptography and steganography performed in frequency domain using random phase ...
In the recent world, security is a prime important issue, and encryption is one of the best alternat...
To enhance the security of double random phase encoding, a kind of amplitude scrambling operation is...
We propose a new optical encoding method of images for security applications. The encoded image is o...
An image hiding scheme is proposed based on the scrambling process composed of the rotation of the s...
A kind of image encryption scheme is presented by using a rotation operation being regarded as the s...
To escalate the image encryption a new method has been devised which includes double random phase en...
A new optical encoding method for security applications is proposed. The encoded image (encrypted in...
In this paper, the optical image encryption scheme based on the double random phase encoding system ...
Abstract — The image cryptography and steganography performed in frequency domain using random phase...
© 2016 Elsevier Ltd. A novel nonlinear image encryption scheme based on a fully phase nonzero-order ...
International audienceA novel chaotic cryptosystem for hyperspectral image, in this paper, is propos...
A new image compression-encryption method based on compressive sensing and double random-phase encod...
We propose an optical security technique for image encryption using triple random-phase encoding (TR...
A number of methods have recently been proposed in the literature for the encryption of two-dimensio...
In this paper image cryptography and steganography performed in frequency domain using random phase ...
In the recent world, security is a prime important issue, and encryption is one of the best alternat...
To enhance the security of double random phase encoding, a kind of amplitude scrambling operation is...
We propose a new optical encoding method of images for security applications. The encoded image is o...
An image hiding scheme is proposed based on the scrambling process composed of the rotation of the s...
A kind of image encryption scheme is presented by using a rotation operation being regarded as the s...
To escalate the image encryption a new method has been devised which includes double random phase en...
A new optical encoding method for security applications is proposed. The encoded image (encrypted in...
In this paper, the optical image encryption scheme based on the double random phase encoding system ...
Abstract — The image cryptography and steganography performed in frequency domain using random phase...
© 2016 Elsevier Ltd. A novel nonlinear image encryption scheme based on a fully phase nonzero-order ...
International audienceA novel chaotic cryptosystem for hyperspectral image, in this paper, is propos...
A new image compression-encryption method based on compressive sensing and double random-phase encod...
We propose an optical security technique for image encryption using triple random-phase encoding (TR...
A number of methods have recently been proposed in the literature for the encryption of two-dimensio...
In this paper image cryptography and steganography performed in frequency domain using random phase ...
In the recent world, security is a prime important issue, and encryption is one of the best alternat...