PROTECTIVE ENCODING OF INFORMATION CARRIERS.
Authors
Sergii Marakshyn

Share
Annotation
The article examines a technology for the protective encoding of information carriers based on the application of a coding coating and the subsequent identification of its parameters through resonance measurement methods. The proposed technical solutions are intended for the protection of optical discs and digital external information carriers, including single-layer and multi-layer optical storage systems. Special attention is given to the principles of encoding and decoding using electromagnetic resonance spectroscopy and impedance analysis, enabling non-contact identification and verification of coding elements with high sensitivity and accuracy.
The article describes the technological features of the system, including the possibility of selective three-dimensional encoding of multilayer optical discs, real-time monitoring of information carriers within corporate security infrastructures, and the creation of mobile or stationary sensor-based analytical devices. The advantages of the proposed technology over existing protection systems are considered, including flexible coding configurations, full production-line quality control, independence from optical drive systems, compatibility with different recording formats, and the possibility of integrating the technology into complex information security systems.
Additional attention is devoted to the practical application of the technology in corporate, industrial, scientific, medical, and military environments, as well as to issues of confidentiality and protection of sensitive information. The article also outlines the physical principles underlying the resonance method and impedance spectroscopy used for the identification and analysis of coding parameters in protected information carriers.
Keywords
Authors
Sergii Marakshyn

Share
References:
Slobozhanyuk, A., et al. Magnetic resonance imaging machine. United States Patent No. 10,732,237, issued August 4, 2020.
Godoy, J., et al. Electron paramagnetic resonance (EPR) techniques and apparatus for performing EPR spectroscopy on a flowing fluid. United States Patent No. 10,564,308, issued February 18, 2020.
Wang, X. Parallel plate transmission line for broadband nuclear magnetic resonance imaging. United States Patent No. 9,952,297, issued April 24, 2018.
Hetherington, H., et al. Transceiver apparatus, system and methodology for superior In-Vivo imaging of human anatomy. United States Patent No. 9,316,709, issued April 19, 2016.
Yonamoto, Y., et al. Sample holder for electricity-detection electron spin resonance device. United States Patent No. 9,018,954, issued April 28, 2015.
Neu, C. P., et al. AFM-coupled microscale radiofrequency probe for magnetic resonance imaging and spectroscopy. United States Patent No. 8,884,608, issued November 11, 2014.
Tang, Y., et al. Waveguides configured with arrays of features for performing Raman spectroscopy. United States Patent No. 8,780,344, issued July 15, 2014.
