QwyitCipher Single-Cycle Encryption Protocol
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Solution Overview
Problem
Current authentication and encryption methods are too complex and slow to be performed end-to-end in native processing, leading to security vulnerabilities and the inability to achieve instant end-to-end security in growing networks, which suffer from significant cybercrime losses.
Innovation Solution
The development of an authentication and encryption protocol, QwyitCipher, that can be implemented within a single clock cycle on an integrated circuit chip, using primitives like MOD 16, Combine, Extract, PDAF, and OWC functions, enabling fast and secure encryption and decryption.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Reliability
If current authentication and encryption methods are used, then security is provided, but the complexity and processing time increase significantly
Solution Approach 1:
The encryption protocol is divided into discrete primitives (MOD 16, Combine, Extract, PDAF, OWC functions) that can be independently implemented and combined. This segmentation allows the complex encryption task to be broken down into manageable, efficient operations that can be executed in a single clock cycle.
Solution Approach 2:
The patent replaces traditional software-based encryption mechanisms with hardware-native processing on integrated circuit chips. By implementing the encryption protocol directly in hardware logic, the system achieves native processing speed while maintaining security, eliminating the complexity overhead of software interpretation.
2Reliability
If current authentication and encryption methods are used, then security is provided, but the processing speed decreases
Solution Approach 1:
The encryption keys and protocol parameters are pre-configured in the hardware circuit, eliminating the need for runtime computation of these elements. The MOD 16, Combine, Extract, PDAF, and OWC functions are pre-wired in hardware logic, allowing immediate execution without software initialization overhead.
Solution Approach 2:
Traditional software encryption is replaced with hardware-native encryption circuits. The encryption operations are performed directly by the integrated circuit's native logic, achieving processing speeds at the clock cycle level while maintaining the security requirements of the encryption protocol.
3Speed
If encryption is performed end-to-end in native processing, then speed is improved, but current methods are too complex to implement
Solution Approach 1:
The encryption protocol is segmented into five fundamental primitives (MOD 16, Combine, Extract, PDAF, OWC) that serve as building blocks. This segmentation simplifies implementation by providing a standardized, modular approach that can be systematically integrated into hardware circuits without requiring complex custom logic design.
Solution Approach 2:
The encryption protocol is designed to be universally applicable across different integrated circuit architectures. The primitives are formulated to work with standard digital logic components, allowing implementation on various chip types (ASIC, FPGA, CPU) without requiring architecture-specific modifications.
Data Source
AI summary
An encryption protocol is provided that can be implemented within a single clock cycle of an integrated circuit chip while still providing unbreakable encryption. The protocol of the present invention is so small that it can co-exist on any integrated circuit chip with other functions, including a general purpose central processing unit, general processing unit, or application specific integrated circuits with other communication related functionality.