Core Insights - Quantum eMotion Corp. has successfully completed an internal quantum simulation project to assess its cryptographic architecture [3][4] - The project utilized IBM's Qiskit framework to simulate Grover's algorithm, focusing on the security of symmetric encryption enhanced by the company's Quantum Random Number Generator (QRNG) [4][8] - The results indicate that the integration of QRNG-generated entropy provides strong resistance to quantum attacks, supporting the company's security-by-design approach [6][8] Company Overview - Quantum eMotion Corp. specializes in quantum-secure technologies and aims to meet the growing demand for affordable security solutions for connected devices [9][10] - The company has developed a patented Quantum Random Number Generator that leverages quantum mechanics to enhance cybersecurity for high-value assets and critical systems [9][10] Project Details - The benchmarking project was conducted in collaboration with PINQ², a non-profit organization that provides access to quantum and classic computing resources [4][7] - Future development will include hybrid testbenches and real-time emulation of cryptographic architectures enhanced with QRNG under constrained computing conditions [6] Technical Findings - Simulations showed that the success rate of Grover's algorithm decreases significantly with larger key sizes, making attacks infeasible with foreseeable quantum hardware at projected real-world key sizes (e.g., 256 bits) [8] - The integration of QRNG appears to increase oracle complexity and circuit depth, suggesting a higher computational burden for potential quantum attackers [8]
CORRECTION FROM SOURCE: Quantum eMotion Announces Successful Completion of Quantum Simulation Project Evaluating Sentry-Q Cryptographic Architecture