Innovative construction of involutory MDS matrices via self-reciprocal generator polynomials derived from reed-solomon codes
Author affiliations
DOI:
https://doi.org/10.15625/1813-9663/22518Keywords:
MDS matrix, companion matrix, recursive MDS matrix, reed-Solomon codes, self-reciprocal polynomials.Abstract
Recursive MDS matrices over finite fields optimize diffusion and enable efficient implementation in block ciphers. A key challenge is designing involutory MDS matrices to unify encryption and decryption, reducing costs. Recursive MDS matrices can meet these requirements. In this paper, we present a direct construction method for self-reciprocal recursive MDS matrices of arbitrary sizes, derived from self-reciprocal generator polynomials of Reed-Solomon codes, to generate corresponding involutory MDS matrices. The method for deriving self-reciprocal recursive MDS matrices from Reed-Solomon codes is straightforward. Additionally, we identify self-reciprocal generator polynomials of RS codes over the general finite field , where and is a prime number, including cases where is an odd prime. Involutory MDS matrices derived from self-reciprocal matrices are highly efficient for hardware and software, making them ideal for modern cryptographic applications.
Downloads
Published
How to Cite
Issue
Section
License
1. We hereby assign copyright of our article (the Work) in all forms of media, whether now known or hereafter developed, to the Journal of Computer Science and Cybernetics. We understand that the Journal of Computer Science and Cybernetics will act on my/our behalf to publish, reproduce, distribute and transmit the Work.2. This assignment of copyright to the Journal of Computer Science and Cybernetics is done so on the understanding that permission from the Journal of Computer Science and Cybernetics is not required for me/us to reproduce, republish or distribute copies of the Work in whole or in part. We will ensure that all such copies carry a notice of copyright ownership and reference to the original journal publication.
3. We warrant that the Work is our results and has not been published before in its current or a substantially similar form and is not under consideration for another publication, does not contain any unlawful statements and does not infringe any existing copyright.
4. We also warrant that We have obtained the necessary permission from the copyright holder/s to reproduce in the article any materials including tables, diagrams or photographs not owned by me/us.

