Physics-Aware Fluid Field Generation from User Sketches Using Helmholtz-Hodge Decomposition
Ryuichi Miyauchi, Hengyuan Chang, Tsukasa Fukusato, Kazunori Miyata, Haoran Xie

TL;DR
This paper introduces a novel interactive method for designing 2D fluid vector fields from user sketches by combining latent diffusion models with Helmholtz-Hodge decomposition to ensure physical accuracy.
Contribution
It integrates generative modeling with physical property enforcement, enabling intuitive and physically consistent fluid field design from sketches.
Findings
Effective generation of 2D vector fields from sketches
Successful incorporation of physical properties like incompressibility
Demonstrated improved control and realism in fluid simulations
Abstract
Fluid simulation techniques are widely used in various fields such as film production, but controlling complex fluid behaviors remains challenging. While recent generative models enable intuitive generation of vector fields from user sketches, they struggle to maintain physical properties such as incompressibility. To address these issues, this paper proposes a method for interactively designing 2D vector fields. Conventional generative models can intuitively generate vector fields from user sketches, but remain difficult to consider physical properties. Therefore, we add a simple editing process after generating the vector field. In the first stage, we use a latent diffusion model~(LDM) to automatically generate initial 2D vector fields from user sketches. In the second stage, we apply the Helmholtz-Hodge decomposition to locally extract physical properties such as incompressibility…
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