The Evaluation of Time-Dependent Initialization Vector Advanced Encryption Standard Algorithm for Image Encryption

Assafli, Hayder T.; Hashim, Ivan A.; Naser, Ahmed A.

doi:10.30684/etj.2021.131397.1032

	The Evaluation of Time-Dependent Initialization Vector Advanced Encryption Standard Algorithm for Image Encryption
Engineering and Technology Journal
Article 6, Volume 40, Issue 8, 2022, Pages 1045-1054 PDF (1.98 M)
Document Type: Research Paper
DOI: 10.30684/etj.2021.131397.1032
Authors
Hayder T. Assafli^* ¹; Ivan A. Hashim²; Ahmed A. Naser³
¹Electrical Engineering Dept. University of Technology. Baghdad, Iraq.
²University of Technology-Iraq
³Directorate of Space and Communication, Ministry of Science and Technology, Baghdad, Iraq
Abstract
The Advanced Encryption Standard (AES) has become an attractive encryption method for its high security and fast implementation. The encryption algorithm is approved as a standard to be used in widely used communication and data processing units However, the advance in technology and the introduction of quantum computers made the encryption scheme vulnerable to attack. Different attack procedures are continuously being developed for attacking end decrypted important and sensitive data. This paper evaluated an enhanced Advanced Encryption System operating in Cipher Block Chaining mode that suggests a promising solution for resisting future attacks. The approach depends on a time-dependent initialization vector that produces the initialization vector block depending on the epoch time without sharing any encryption key. The evaluation process includes correlation analysis, global and local Shannon entropy analysis, chi-square analysis, histogram analysis, and differential analysis. The results showed that the enhanced encryption scheme is reliable and can resist most cyber-attacks without exposing any encrypted data to the public. The results were compared with previously published and tested algorithms and found that it satisfies and exceeds the minimum requirement. So, the encryption method can be implemented safely in future communication channels or used in the file encryption process. . .
Highlights
Sensitive data has to be protected from the public. A strong encryption algorithm is required for protecting images. Computing speed is growing, making algorithms vulnerable to attacks. An enhanced AES-CBC algorithm is evaluated for the encryption proposed. The algorithm satisfied the required standards and passed all tests.
Keywords
Advanced Encryption Standard,,; ,،,؛Cipher Block Chaining,,; ,،,؛Image encryption,,; ,،,؛Time-dependent,,; ,،,؛Epoch time

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