Genomic Encryption Protocol for Secure Data Transmission
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Solution Overview
Problem
Current encryption technologies are vulnerable to attacks due to their algebraic nature, social engineering, and infrastructure limitations, especially in mobile ad-hoc networks, and lack effective biological security protocols to enhance network security.
Innovation Solution
The development of a genomic and proteomic encryption protocol that utilizes message authentication codes and encryption codes derived from DNA, RNA, proteins, and their derivatives, integrating biological pathways and gene expression mechanisms to create secure authentication and encryption systems through a 'ciphercolony' concept, which includes living organisms and algorithms stored in a BioID device.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Reliability
If conventional encryption algorithms are used, then implementation is simple and well-studied, but they are vulnerable to cryptanalysis and algebraic attacks
Solution Approach 1:
The patent replaces conventional algebraic encryption mechanisms with biological molecular mechanisms. DNA strands, RNA transcription, and protein translation are used instead of mathematical algorithms, exploiting the complexity of biological systems to create encryption that is resistant to traditional cryptanalysis while maintaining implementation feasibility through standardized biological protocols.
Solution Approach 2:
The invention combines multiple biological components (DNA, RNA, proteins) with computational elements to create a hybrid encryption system. The composite nature of using both biological molecules and algorithmic processing provides layered security that addresses the vulnerability of single-approach encryption systems.
2Reliability
If DNA-based encryption is used, then security against cryptanalysis improves, but implementation complexity and infrastructure requirements increase
Solution Approach 1:
The biological system performs self-service through natural molecular processes. DNA strands automatically hybridize with complementary sequences, RNA transcription occurs through natural enzymatic processes, and protein translation follows inherent biological pathways. This eliminates the need for complex external control mechanisms while maintaining security.
Solution Approach 2:
The patent designs the DNA-based encryption system to perform multiple functions: encryption, authentication, and key management all through the same biological mechanisms. The universal applicability of DNA hybridization and protein expression across different platforms simplifies implementation infrastructure.
3Reliability
If certificate authorities are used for authentication, then identity verification is established, but they are vulnerable to identity impersonation and infrastructure attacks
Solution Approach 1:
The patent extracts the authentication function from centralized certificate authorities and embeds it directly into individual devices through unique DNA sequences. Each device contains its own biological authentication credentials, eliminating the single point of failure that vulnerable CAs represent while maintaining robust identity verification.
Data Source
AI summary
Apparatuses, systems, computer programs and methods for implementing a genomics-based security solution are discussed herein. In an encryption process, plaintext may be converted to DNAtext and DNAtext may be converted to a ciphergene. The ciphergene may then be converted into a pre-transcriptional complex. The pre-transcriptional complex, in turn, may then be converted into a cipherprotein. The decryption process operates in the reverse of the encryption process to obtain plaintext.