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Filters: Keyword is reversible data hiding  [Clear All Filters]
2021-08-31
B.D.J., Anudeep, Sai N., Mohan, Bhanuj T., Sai, Devi, R. Santhiya, Kumar, Vaishnavi, Thenmozhi, K., Rengarajan, Amirtharajan, Praveenkumar, Padmapriya.  2020.  Reversible Hiding with Quick Response Code - A Responsible Security. 2020 International Conference on Computer Communication and Informatics (ICCCI). :1—5.
In this paper, Reversible data hiding using difference statistics technique incorporating QR codes was proposed. Here, Quick Response (QR) codes were employed as an additional feature and were hidden in the corners of the original image to direct to the hyperlink after authentication and then embedding the secret data bits was carried out. At the receiver side, when the QR codes were scanned by the user, the link to the webpage was accessed, and then the original image and the secret data bits were recovered by using the proposed reversible data hiding scheme. In the proposed scheme, the pixels of the cover image were scanned in row-major order fashion, and the differences between the adjacent pixels were computed, keeping the first pixel unaltered to maintain the size of the host and the difference image same. Now, the histogram was shifted towards the right or left to reduce the redundancy and then to embed the secret data bits were done. Due to the similarity exists between the pixel values, the difference between the host and the secret image reconstructs the marked image. The proposed scheme was carried out using MATLAB 2013. PSNR (Peak Signal to Noise Ratio) and payload have been computed for various test images to validate the proposed scheme and found to be better than the available literature.
2021-06-28
Sarabia-Lopez, Jaime, Nuñez-Ramirez, Diana, Mata-Mendoza, David, Fragoso-Navarro, Eduardo, Cedillo-Hernandez, Manuel, Nakano-Miyatake, Mariko.  2020.  Visible-Imperceptible Image Watermarking based on Reversible Data Hiding with Contrast Enhancement. 2020 International Conference on Mechatronics, Electronics and Automotive Engineering (ICMEAE). :29–34.
Currently the use and production of multimedia data such as digital images have increased due to its wide use within smart devices and open networks. Although this has some advantages, it has generated several issues related to the infraction of intellectual property. Digital image watermarking is a promissory solution to solve these issues. Considering the need to develop mechanisms to improve the information security as well as protect the intellectual property of the digital images, in this paper we propose a novel visible-imperceptible watermarking based on reversible data hiding with contrast enhancement. In this way, a watermark logo is embedded in the spatial domain of the original image imperceptibly, so that the logo is revealed applying reversible data hiding increasing the contrast of the watermarked image and the same time concealing a great amount of data bits, which are extracted and the watermarked image restored to its original conditions using the reversible functionality. Experimental results show the effectiveness of the proposed algorithm. A performance comparison with the current state-of-the-art is provided.
2020-10-16
Ingale, Alpana A., Moon, Sunil K..  2018.  E-Government Documents Authentication and Security by Utilizing Video Crypto-Steganography. 2018 IEEE Global Conference on Wireless Computing and Networking (GCWCN). :141—145.

In our daily lives, the advances of new technology can be used to sustain the development of people across the globe. Particularly, e-government can be the dynamo of the development for the people. The development of technology and the rapid growth in the use of internet creates a big challenge in the administration in both the public and the private sector. E-government is a vital accomplishment, whereas the security is the main downside which occurs in each e-government process. E-government has to be secure as technology grows and the users have to follow the procedures to make their own transactions safe. This paper tackles the challenges and obstacles to enhance the security of information in e-government. Hence to achieve security data hiding techniques are found to be trustworthy. Reversible data hiding (RDH) is an emerging technique which helps in retaining the quality of the cover image. Hence it is preferred over the traditional data hiding techniques. Modification in the existing algorithm is performed for image encryption scheme and data hiding scheme in order to improve the results. To achieve this secret data is split into 20 parts and data concealing is performed on each part. The data hiding procedure includes embedding of data into least significant nibble of the cover image. The bits are further equally distributed in the cover image to obtain the key security parameters. Hence the obtained results validate that the proposed scheme is better than the existing schemes.

2020-03-30
Li, Jian, Zhang, Zelin, Li, Shengyu, Benton, Ryan, Huang, Yulong, Kasukurthi, Mohan Vamsi, Li, Dongqi, Lin, Jingwei, Borchert, Glen M., Tan, Shaobo et al..  2019.  Reversible Data Hiding Based Key Region Protection Method in Medical Images. 2019 IEEE International Conference on Bioinformatics and Biomedicine (BIBM). :1526–1530.
The transmission of medical image data in an open network environment is subject to privacy issues including patient privacy and data leakage. In the past, image encryption and information-hiding technology have been used to solve such security problems. But these methodologies, in general, suffered from difficulties in retrieving original images. We present in this paper an algorithm to protect key regions in medical images. First, coefficient of variation is used to locate the key regions, a.k.a. the lesion areas, of an image; other areas are then processed in blocks and analyzed for texture complexity. Next, our reversible data-hiding algorithm is used to embed the contents from the lesion areas into a high-texture area, and the Arnold transformation is performed to protect the original lesion information. In addition to this, we use the ciphertext of the basic information about the image and the decryption parameter to generate the Quick Response (QR) Code to replace the original key regions. Consequently, only authorized customers can obtain the encryption key to extract information from encrypted images. Experimental results show that our algorithm can not only restore the original image without information loss, but also safely transfer the medical image copyright and patient-sensitive information.