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Title: Universal Prime Number Generation via Quantum Simulation (UPQGS)

Jincheng Zhang

Published Sep 6, 2026• 0 citations
Publisher

Abstract

The generation of prime numbers has historically relied on deterministic algorithms, limiting their security against brute-force attacks. This paper introduces Universal Prime Number Generation via Quantum Simulation (UPQGS), a novel quantum algorithm designed to produce prime numbers with a guaranteed level of randomness and enhanced security. We propose a quantum simulation approach that leverages the inherent properties of quantum mechanics to explore the prime number space in a statistically diverse manner. The core mechanism centers on utilizing a quantum algorithm to simulate the evolution of a prime number generator, generating a statistically representative set of prime numbers. This approach promises to provide a fundamentally new method for cryptographic security, surpassing the limitations of traditional prime number generation techniques. The research will detail the quantum algorithm, its implementation, and the resulting characteristics of the generated prime numbers, emphasizing the algorithm's ability to achieve a high degree of randomness and statistical diversity.

DOI
10.5281/zenodo.22479260

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Prime numbers are a fundamental building block of mathematics, underpinning many cryptographic systems and fundamental number theory concepts. The generation of prime numbers remains a challenging problem, and classical algorithms often struggle with large numbers and long sequences. This paper proposes a novel quantum algorithm designed to dramatically increase the speed and efficiency of prime number generation, leveraging a sophisticated "Quantum Amplitude Amplification" technique. We demonstrate the potential of this approach to achieve significantly improved performance compared to existing classical methods, offering a promising pathway toward practical prime number generation. The core mechanism centers around strategically amplifying quantum states to enhance the probability of prime number discovery, a concept previously explored but rarely implemented at scale. This paper provides a detailed theoretical analysis and experimental validation of the proposed algorithm, highlighting its advantages and potential impact on prime number computation.
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