TITLE:
Novel Joint Cybersecurity-Channel Coding Scheme via Homeomorphism and Nano Controlled-Switching Lattice Grids, Part II: Regular Hierarchical Realization
AUTHORS:
Anas N. Al-Rabadi, Rania F. Rabadi
KEYWORDS:
Cybersecurity, Error-Control Coding, Lattice Grids, Logic Homeomorphism, Nano-Based Devices and Circuits
JOURNAL NAME:
Journal of Computer and Communications,
Vol.14 No.9,
September
30,
2026
ABSTRACT: Regular hierarchical architecture design using lattice grids via nano-based carbon controlled-switching devices is implemented for the newly introduced homeomorphic joint cybersecurity-channel coding scheme which was introduced for the first time in the first part of this article. Cybersecurity implementation is very important in modern wireless networks and communications since wireless data transactions is highly exposed to eavesdropping and malicious hacking. In addition, channel coding is highly important in wireless data transactions since channel coding is required to correct for data errors that are encountered due to the existence of unavoidable channel noise. Logic homeomorphism describes properties-preserving logic mapping that is intrinsically bijective, where it was introduced for the first time in the first part of this article that logic homeomorphism is utilized to achieve joint cybersecurity-channel coding implementation, where it was also shown that the implementation of the property of logic homeomorphism within cybersecurity via new symmetric key ks(k, N, n) can further enhance confidentiality and within channel coding can further enhance data integrity (thus better reliability) for the correction of many-error situations that are usually uncorrectable. Lattice grids possess the important property of high regularity which was proven to be very useful in low-power fault testing and localization, self-repair, size compactness and ease of manufacturability. Thus, the introduced nano-based regular lattice implementation of the newly introduced joint cybersecurity-channel coding method will be useful for improving system characteristics such as enhancing cybersecurity and error-correction capabilities, fault testing and localization, size compactness, speed improvement and the minimization of power consumption. Applications of the new nano-based regular homeomorphic architectural design will include lower-power higher-performance and smaller-size designs of ASIC circuits and systems for higher data confidentiality and better data integrity (thus better reliability) within wireless data networking and transactions.