Challenges
Datasets
Workspaces
Papers
Discussions
Leaderboard
Log inSign up
Challenges
Datasets
Workspaces
Papers
Discussions
Leaderboard
Blog
Job Board
Q3AS

© 2026 Aqora Quantum S.A.S.

TermsPrivacyLegal Notice

arXiv:2303.10157 · Physical Review A

Identifying primes from entanglement dynamics

A. L. M. Southier, Léa Ferreira dos Santos, P. H. Souto Ribeiro, A. D. Ribeiro

Published Oct 4, 2023• 5 citations
arXivHTMLPDF

Abstract

The distribution of primes over the set of natural numbers is a fascinating subject closely related to topics that range from the fundamental problem of factorization to applications in cryptography. Despite numerous efforts, efficient methods to locate huge primes are still under investigation. Here, we present an alternative approach to identifying prime numbers that is based on the evolution of the linear entanglement entropy. Specifically, we show that a singular behavior in the amplitudes of the Fourier series of this entropy is associated with prime numbers. We also discuss how this intriguing connection between primes and entanglement could be experimentally implemented using existing optical devices, and examine a possible relationship between our results and the zeros of the Riemann zeta function.

DOI
10.1103/physreva.108.042404

Related papers

Title: Universal Prime Number Distribution via Quantum Entanglement

Jincheng Zhang

The distribution of prime numbers, a fundamental aspect of number theory, has long been a subject of intense scrutiny and debate. Classical probability theory provides a framework for understanding this distribution, but it often fails to adequately capture the subtle and non-classical behavior observed in the real world. This paper proposes a novel approach utilizing quantum entanglement to investigate the prime number distribution, aiming to demonstrate a potential pathway to a more uniform and stable distribution than currently understood. Quantum entanglement offers a unique mechanism for creating interconnected clusters of primes, potentially offering a revolutionary perspective on this long-standing problem. We will explore the theoretical underpinnings of this concept, outlining the specific design of the entanglement process and its potential impact on the prime number distribution. The analysis will focus on establishing a robust framework for predicting and quantifying the distribution of prime numbers using this quantum-inspired approach. This investigation represents a significant step toward understanding the fundamental nature of prime numbers and may lead to advancements in diverse fields, including cryptography and number theory.

•Sep 3, 2026•0 citations

Prime Number Identification Demonstrated with Quantum Processors Using a New Rescaling-Based Noise Mitigation Technique

Victor F. dos Santos, Victor P. Brasil, Pedro A. S. Contri +1 more

We implement a quantum protocol for prime number identification based on entanglement dynamics, using IBM quantum processors. The method links the primality of an integer to specific Fourier components extracted from the time evolution of entanglement in a bipartite quantum system. To mitigate experimental noise, we introduce a noise-mitigation method based on a global rescaling factor, which is calibrated on a subset of circuits and extrapolated across different configurations. Theoretical support is provided by a new analytical bound for the Fourier modes derived assuming an initial uniform superposition state. This new bound enhances the separation between prime and composite numbers under moderate experimental deviations. These results represent a step toward practical number-theoretic applications on noisy intermediate-scale quantum (NISQ) devices.

quant-pharXiv:2605.28964•Advanced Quantum Technologies•May 29, 2026•0 citations

Title: Higher-Order Riemann Hypothesis – Quantum Correlation as a Constraint

Jincheng Zhang

The Riemann Hypothesis, a long-standing unsolved problem in number theory, poses a fundamental challenge to our understanding of the distribution of prime numbers. While its impact on the arithmetic of prime numbers is well-established, its subtle implications for the underlying structure of quantum mechanics remain largely unexplored. This paper investigates the potential for quantum correlations within the prime number distribution to provide a novel constraint on the fundamental laws of quantum mechanics, proposing a new mathematical tool to quantify these correlations and demonstrate their significance. We argue that these correlations, if quantifiable, could reveal a deeper connection between number theory and quantum phenomena, potentially leading to new insights into the nature of reality. This work will explore the potential for entanglement-based approaches to quantify these correlations, providing a rigorous theoretical framework for investigating this intriguing connection.

•Aug 31, 2026•0 citations

Title: Quantum-Enhanced Riemann Hypothesis

Jincheng Zhang

The Riemann Hypothesis, a long-standing unsolved problem in mathematics, concerns the distribution of prime numbers. Despite extensive research, no definitive proof remains elusive. This paper explores a novel quantum algorithm designed to approximate the Riemann zeta function, aiming to provide exponential speedups over classical methods. We propose a hybrid quantum-classical approach, utilizing quantum superposition and entanglement to efficiently explore the zeta function's complex landscape, ultimately leading to a significant computational advantage. This research focuses on the fundamental potential of quantum computation to address this mathematical challenge.

•Sep 1, 2026•0 citations

Title: Dynamically Generated Prime Number Sequences via Quantum Simulation

Jincheng Zhang

The quest for prime numbers remains a fundamental challenge in mathematics, driving a persistent desire for more efficient prime number generation techniques. Classical methods often struggle to produce sufficient numbers, while the search for novel prime distribution patterns is a long-standing endeavor. This paper explores a novel approach utilizing quantum simulation to generate and analyze prime number sequences with significantly enhanced density. We propose a quantum simulation technique that leverages quantum entanglement to create a highly complex, multi-scale model of prime number distribution. This model allows for the identification of intricate patterns and distributions, far exceeding the capabilities of classical computation. We detail the theoretical framework, the quantum algorithm implementation, and preliminary results demonstrating a substantial increase in prime number density compared to existing methods. This advancement holds the potential to revolutionize prime number discovery and contribute to a deeper understanding of the fundamental properties of prime numbers.

•Sep 7, 2026•0 citations

Title: Quantum-Enhanced Riemann Hypothesis via Entangled Variables

Jincheng Zhang

The Riemann Hypothesis, a long-standing and stubbornly unsolved problem in number theory, has captivated mathematicians for over 150 years. Current computational methods struggle to definitively prove or disprove it, highlighting a significant gap in our understanding of the zeta function. This paper proposes a novel approach to tackle this problem utilizing quantum-enhanced measurement techniques and entangled variables. We outline a new algorithm for exploring the Riemann Hypothesis, leveraging the correlations between entangled particles to identify subtle patterns within the zeta function. The core mechanism centers on creating entangled particles to probe the structure of the zeta function, potentially revealing previously missed connections. This investigation leverages a hybrid quantum-classical approach, combining the precision of quantum mechanics with the analytical power of classical computation. The goal is to develop a framework that can potentially lead to new insights into the Riemann Hypothesis and provide a more robust theoretical foundation.

•Aug 29, 2026•0 citations
The distribution of primes over the set of natural numbers is a fascinating subject closely related to topics that range from the fundamental problem of factorization to applications in cryptography. Despite numerous efforts, efficient methods to locate huge primes are still under investigation. Here, we present an alternative approach to identifying prime numbers that is based on the evolution of the linear entanglement entropy. Specifically, we show that a singular behavior in the amplitudes of the Fourier series of this entropy is associated with prime numbers. We also discuss how this intriguing connection between primes and entanglement could be experimentally implemented using existing optical devices, and examine a possible relationship between our results and the zeros of the Riemann zeta function.
The distribution of prime numbers, a fundamental aspect of number theory, has long been a subject of intense scrutiny and debate. Classical probability theory provides a framework for understanding this distribution, but it often fails to adequately capture the subtle and non-classical behavior observed in the real world. This paper proposes a novel approach utilizing quantum entanglement to investigate the prime number distribution, aiming to demonstrate a potential pathway to a more uniform and stable distribution than currently understood. Quantum entanglement offers a unique mechanism for creating interconnected clusters of primes, potentially offering a revolutionary perspective on this long-standing problem. We will explore the theoretical underpinnings of this concept, outlining the specific design of the entanglement process and its potential impact on the prime number distribution. The analysis will focus on establishing a robust framework for predicting and quantifying the distribution of prime numbers using this quantum-inspired approach. This investigation represents a significant step toward understanding the fundamental nature of prime numbers and may lead to advancements in diverse fields, including cryptography and number theory.
We implement a quantum protocol for prime number identification based on entanglement dynamics, using IBM quantum processors. The method links the primality of an integer to specific Fourier components extracted from the time evolution of entanglement in a bipartite quantum system. To mitigate experimental noise, we introduce a noise-mitigation method based on a global rescaling factor, which is calibrated on a subset of circuits and extrapolated across different configurations. Theoretical support is provided by a new analytical bound for the Fourier modes derived assuming an initial uniform superposition state. This new bound enhances the separation between prime and composite numbers under moderate experimental deviations. These results represent a step toward practical number-theoretic applications on noisy intermediate-scale quantum (NISQ) devices.
The Riemann Hypothesis, a long-standing unsolved problem in number theory, poses a fundamental challenge to our understanding of the distribution of prime numbers. While its impact on the arithmetic of prime numbers is well-established, its subtle implications for the underlying structure of quantum mechanics remain largely unexplored. This paper investigates the potential for quantum correlations within the prime number distribution to provide a novel constraint on the fundamental laws of quantum mechanics, proposing a new mathematical tool to quantify these correlations and demonstrate their significance. We argue that these correlations, if quantifiable, could reveal a deeper connection between number theory and quantum phenomena, potentially leading to new insights into the nature of reality. This work will explore the potential for entanglement-based approaches to quantify these correlations, providing a rigorous theoretical framework for investigating this intriguing connection.
The Riemann Hypothesis, a long-standing unsolved problem in mathematics, concerns the distribution of prime numbers. Despite extensive research, no definitive proof remains elusive. This paper explores a novel quantum algorithm designed to approximate the Riemann zeta function, aiming to provide exponential speedups over classical methods. We propose a hybrid quantum-classical approach, utilizing quantum superposition and entanglement to efficiently explore the zeta function's complex landscape, ultimately leading to a significant computational advantage. This research focuses on the fundamental potential of quantum computation to address this mathematical challenge.
The quest for prime numbers remains a fundamental challenge in mathematics, driving a persistent desire for more efficient prime number generation techniques. Classical methods often struggle to produce sufficient numbers, while the search for novel prime distribution patterns is a long-standing endeavor. This paper explores a novel approach utilizing quantum simulation to generate and analyze prime number sequences with significantly enhanced density. We propose a quantum simulation technique that leverages quantum entanglement to create a highly complex, multi-scale model of prime number distribution. This model allows for the identification of intricate patterns and distributions, far exceeding the capabilities of classical computation. We detail the theoretical framework, the quantum algorithm implementation, and preliminary results demonstrating a substantial increase in prime number density compared to existing methods. This advancement holds the potential to revolutionize prime number discovery and contribute to a deeper understanding of the fundamental properties of prime numbers.
The Riemann Hypothesis, a long-standing and stubbornly unsolved problem in number theory, has captivated mathematicians for over 150 years. Current computational methods struggle to definitively prove or disprove it, highlighting a significant gap in our understanding of the zeta function. This paper proposes a novel approach to tackle this problem utilizing quantum-enhanced measurement techniques and entangled variables. We outline a new algorithm for exploring the Riemann Hypothesis, leveraging the correlations between entangled particles to identify subtle patterns within the zeta function. The core mechanism centers on creating entangled particles to probe the structure of the zeta function, potentially revealing previously missed connections. This investigation leverages a hybrid quantum-classical approach, combining the precision of quantum mechanics with the analytical power of classical computation. The goal is to develop a framework that can potentially lead to new insights into the Riemann Hypothesis and provide a more robust theoretical foundation.