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This research introduces a physics-guided generative AI framework that successfully integrates physical constraints into the inverse design of 3D porous media for applications ranging from energy storage to catalysis. By combining variational autoencoders with latent diffusion models, the approach achieves superior control over target properties like porosity and permeability compared to standard baselines. The work establishes a scalable methodology for simulation-informed generative AI tools in advanced materials discovery and engineering design.
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Physics-Guided Generative AI for Property-Targeted 3D Porous Media Design

arXiv2 min de cititArticolul și perspectiva sunt în engleză.

arXiv:2607.24274v1 Announce Type: cross Abstract: Inverse design of three-dimensional porous media is central to applications in filtration, catalysis, energy storage, fuel cells, thermal management, and biomedical scaffolds, but remains challenging because many distinct pore geometries can share similar porosity or permeability while small structural changes can strongly affect transport behaviour. This paper proposes a physics-guided generative AI framework for property-targeted porous media design, combining a property-aware variational autoencoder, a conditional latent diffusion model, and an independently trained differentiable structure-to-property surrogate. The framework learns a compact, physically informative latent design space, generates porous structures conditioned on target porosity and directional permeability, and refines generated samples using property-level feedback during denoising and decoding. Experiments on procedurally generated structures and real micro-CT porous-media datasets show improved target-property matching, directional permeability control, and property correlation compared with representative property-aware variational-autoencoder and latent-diffusion baselines. The results demonstrate a scalable route towards controllable inverse design of complex porous geometries and establish a foundation for simulation-informed generative AI tools in engineering and advanced materials discovery.

Abstract:Inverse design of three-dimensional porous media is central to applications in filtration, catalysis, energy storage, fuel cells, thermal management, and biomedical scaffolds, but remains challenging because many distinct pore geometries can share similar porosity or permeability while small structural changes can strongly affect transport behaviour. This paper proposes a physics-guided generative AI framework for property-targeted porous media design, combining a property-aware variational autoencoder, a conditional latent diffusion model, and an independently trained differentiable structure-to-property surrogate. The framework learns a compact, physically informative latent design space, generates porous structures conditioned on target porosity and directional permeability, and refines generated samples using property-level feedback during denoising and decoding. Experiments on procedurally generated structures and real micro-CT porous-media datasets show improved target-property matching, directional permeability control, and property correlation compared with representative property-aware variational-autoencoder and latent-diffusion baselines. The results demonstrate a scalable route towards controllable inverse design of complex porous geometries and establish a foundation for simulation-informed generative AI tools in engineering and advanced materials discovery.

Machine Learning (cs.LG); Artificial Intelligence (cs.AI)

arXiv:2607.24274 [cs.LG]

(or arXiv:2607.24274v1 [cs.LG] for this version)

https://doi.org/10.48550/arXiv.2607.24274 Focus to learn more arXiv-issued DOI via DataCite (pending registration)

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