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Quantum Simulation of Fluid Dynamics with Wave-Vector Perturbation

Jincheng Zhang

Published Sep 4, 2026• 0 citations
Publisher

Abstract

Quantum Simulation of Fluid Dynamics with Wave-Vector Perturbation presents a novel approach to simulating fluid dynamics using quantum mechanics, specifically employing the wave-vector perturbation technique. This research explores the potential for achieving a more efficient and accurate representation of fluid flow phenomena compared to conventional quantum algorithms, particularly in scenarios requiring detailed modeling of complex, transient behavior. The core mechanism involves developing a quantum algorithm designed to directly simulate fluid dynamics, offering a potential breakthrough in simulating complex fluid behavior. This paper details the theoretical underpinnings, algorithm design, and preliminary results demonstrating the efficacy of this technique.

DOI
10.5281/zenodo.22303636

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This paper explores the potential of resonant-based quantum simulation to revolutionize the modeling of complex fluid dynamics. Traditional numerical methods struggle with the intricate behavior of fluid flows, particularly turbulence, often requiring significant computational resources and long simulation times. We propose a novel quantum algorithm that utilizes the resonance frequencies inherent in fluid properties to provide unprecedented resolution and accuracy in simulating these flows. The core mechanism centers on exploiting these frequencies to predict and control fluid dynamics, offering a fundamentally different approach to numerical modeling. This work addresses the limitations of existing techniques and presents a framework for achieving high fidelity simulations of complex fluid phenomena.
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Quantum simulation, leveraging the principles of quantum mechanics, holds immense potential for accurately modeling complex systems, including fluid dynamics. This research investigates a novel quantum simulation algorithm designed to tackle the challenges inherent in traditional numerical methods, specifically focusing on the intricate dynamics of turbulent flow. The core of this endeavor is the creation of a modified quantum field theory that incorporates a 'non-local interaction' – a crucial element we hypothesize will significantly enhance the simulation's fidelity and address limitations of existing approaches. The study explores the algorithm's capacity to generate realistic fluid dynamics simulations, demonstrating a demonstrable improvement in accuracy compared to existing numerical techniques, particularly when simulating turbulent regimes. This work presents a fundamentally new approach to quantum fluid dynamics simulation, offering a pathway toward more precise and comprehensive modeling of fluid behavior.