Quantum Entangled Bit Communication for Secure Program Randomization
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Solution Overview
Problem
Traditional cryptographic systems are vulnerable to quantum computing attacks due to non-random key generation and insecure key distribution, necessitating quantum-resistant techniques.
Innovation Solution
Utilizing quantum entanglement to generate shared random numbers between nodes through entangled photon streams, enabling secure communication and modification of cryptographic processes to enhance security.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Reliability
If traditional cryptographic key generation methods are used, then system complexity remains low, but security reliability deteriorates due to vulnerability to quantum computing attacks
Solution Approach 1:
The patent replaces traditional mechanical/random number generation methods with quantum mechanical processes. Quantum entangled particles are used to generate random numbers through measurement, leveraging quantum phenomena (entanglement, superposition) to achieve cryptographic security that is fundamentally resistant to quantum computing attacks, thereby resolving the contradiction between security reliability and system complexity
Solution Approach 2:
The patent changes the fundamental parameter of random number generation from classical randomness to quantum randomness. By using quantum entangled particles and measuring their states, the system generates random numbers with proven cryptographic security properties, transforming the security paradigm without requiring complex post-quantum cryptographic algorithms
2Reliability
If quantum entanglement is used for key distribution, then security reliability improves, but device complexity increases
Solution Approach 1:
The patent extracts only the essential quantum entanglement mechanism needed for secure key distribution, separating it from complex quantum computing systems. By using entangled particles for random number generation and key exchange, the system achieves quantum security without requiring full quantum computing capabilities, thus reducing the complexity barrier
Solution Approach 2:
The quantum entanglement-based random number generator serves multiple cryptographic functions: key generation, key distribution, and randomness expansion. This multi-functionality reduces the need for separate complex cryptographic systems, thereby improving security while managing device complexity through a single unified quantum interface
3Reliability
If quantum random numbers are generated and used to modify programs, then security against reverse engineering improves, but ease of operation deteriorates
Solution Approach 1:
The system performs preliminary quantum random number generation before program execution, creating secure seeds that are then used to modify program behavior. This preliminary quantum action establishes cryptographic security foundations without requiring complex operations during program execution, thereby improving reverse engineering resistance while maintaining operational simplicity
Solution Approach 2:
The quantum random number generator operates autonomously, generating and distributing random numbers to modify program execution paths without requiring manual intervention. The system self-manages the cryptographic operations, making the complex quantum processes transparent to users while achieving enhanced security against reverse engineering
Data Source
AI summary
Systems and techniques may generally be used for modifying quantum entangled bit communication. An example technique may include generating, at a first node in a computing network, a random number using a quantum derived seed as input to a random number generator; modifying a program using the random number while maintaining a function output of the program for a given input; receiving, at the first node from a second node, an input based on the random number; and executing the modified program at the first node using the input to obtain an output consistent with the program in an unmodified state.