MAGE : Single Image to Material-Aware 3D via the Multi-View G-Buffer Estimation Model

Haoyuan Wang, Zhenwei Wang, Xiaoxiao Long, Cheng Lin, G. Hancke +1 more
2/10/2026

No official code found. Best implementation: onpix/mage (21 stars, last commit 2025-10-09).

Abstract

With advances in deep learning models and the availability of large-scale 3D datasets, we have recently witnessed significant progress in single-view 3D reconstruction. However, existing methods often fail to reconstruct physically based material properties given a single image, limiting their applicability in complicated scenarios. This paper presents a novel approach (named MAGE) for generating 3D geometry with realistic decomposed material properties given a single image as input. Our method leverages inspiration from traditional computer graphics deferred rendering pipelines to introduce a multi-view G-buffer estimation model. The proposed model estimates G-buffers for various views as multi-domain images, including XYZ coordinates, normals, albedo, roughness, and metallic properties from a single-view RGB image. To address the inherent ambiguity and inconsistency in generating G-buffers simultaneously, we also formulate a deterministic network from the pretrained diffusion models and propose a lighting response loss that enforces consistency across these domains using PBR principles. Finally, we propose a large-scale synthetic dataset rich in material diversity for our model training. Experimental results demonstrate the effectiveness of our method in producing high-quality 3D meshes with rich material properties. Our code and dataset can be found at https://www.whyy.site/paper/mage.

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Code Implementations(1)

onpix/mageCommunity71%

[CVPR2025] MAGE : Single Image to Material-Aware 3D via the Multi-View G-Buffer Estimation Model

211C, C++Jul 1, 20251 years ago

Cite this paper

@article{wang2026mage,
  title  = {MAGE : Single Image to Material-Aware 3D via the Multi-View G-Buffer Estimation Model},
  author = {Haoyuan Wang and Zhenwei Wang and Xiaoxiao Long and Cheng Lin and G. Hancke and Rynson W. H. Lau},
  year   = {2026},
  doi    = {10.1109/CVPR52734.2025.01026},
  url    = {https://doi.org/10.1109/CVPR52734.2025.01026},
  journal = {CVPR 2025 2025}
}

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