GECO : Fast <u>G</u> enerative Image-to-3D Within One S <u>ECO</u> nd

Recent advancements in single-image 3D generation have produced two main categories of methods: reconstruction-based and generative methods. Reconstruction-based methods are efficient but lack uncertainty handling, leading to blurry artifacts in unseen regions. Generative approaches that based on score distillation (Poole et al. 2023), (Wang et al. 2024) are slow due to scene-specific optimization. Other methods, like InstantMesh (Xu et al. 2024), use a two-stage process - generating multi-view images with a diffusion model and then reconstructing 3D - which is inefficient due to multiple denoising steps of the diffusion model. To overcome these limitations, we introduce GECO, a feed-forward method for fast and high-quality single-image-to-3D generation within one second on a single GPU. Our approach resolves uncertainty and inefficiency issues through a two-stage distillation process. In the first stage, we distill a multi-step diffusion model (Shi et al. 2023) into a one-step model using score distillation for single-image-to-multi-view synthesis. To mitigate the synthesis quality degradation caused by the one-step model, we introduce a second distillation stage to learn to predict high-quality 3D from imperfect multi-view generated images by performing distillation directly on 3D representations. Experiments demonstrate that GECO offers significant speed improvements and comparable reconstruction quality compared to prior two-stage methods.

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Publication Details

Journal
IEEE Transactions on Visualization and Computer Graphics
Published
2025-08-25
DOI
https://doi.org/10.1109/tvcg.2025.3602405
Primary Topic
Medical Image Segmentation Techniques
Type
article
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article

GECO : Fast <u>G</u> enerative Image-to-3D Within One S <u>ECO</u> nd

Yuan Liu, Xiaoxiao Long, Chen Wang, Lingjie Liu et al.
IEEE Transactions on Visualization and Computer Graphics
Medical Image Segmentation Techniques
article

GECO : Fast <u>G</u> enerative Image-to-3D Within One S <u>ECO</u> nd

Yuan Liu, Xiaoxiao Long, Chen Wang, Lingjie Liu, Jiatao Gu
article en

Abstract

Recent advancements in single-image 3D generation have produced two main categories of methods: reconstruction-based and generative methods. Reconstruction-based methods are efficient but lack uncertainty handling, leading to blurry artifacts in unseen regions. Generative approaches that based on score distillation (Poole et al. 2023), (Wang et al. 2024) are slow due to scene-specific optimization. Other methods, like InstantMesh (Xu et al. 2024), use a two-stage process - generating multi-view images with a diffusion model and then reconstructing 3D - which is inefficient due to multiple denoising steps of the diffusion model. To overcome these limitations, we introduce GECO, a feed-forward method for fast and high-quality single-image-to-3D generation within one second on a single GPU. Our approach resolves uncertainty and inefficiency issues through a two-stage distillation process. In the first stage, we distill a multi-step diffusion model (Shi et al. 2023) into a one-step model using score distillation for single-image-to-multi-view synthesis. To mitigate the synthesis quality degradation caused by the one-step model, we introduce a second distillation stage to learn to predict high-quality 3D from imperfect multi-view generated images by performing distillation directly on 3D representations. Experiments demonstrate that GECO offers significant speed improvements and comparable reconstruction quality compared to prior two-stage methods.

IEEE Transactions on Visualization and Computer GraphicsVol. 31(12)
Hong Kong University of Science and Technology (HK), Nanjing University of Science and Technology (CN), University of Pennsylvania (US), University of Hong Kong (HK)
Openalex Percentile: Top 79%
Medical Image Segmentation Techniques
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GECO : Fast <u>G</u> enerative Image-to-3D Within One S <u>ECO</u> nd — Yuan Liu, Xiaoxiao Long, et al. · IEEE Transactions on Visualization and Computer Graphics (2025) | TGRS Research Map | TGRS