Hybrid Fourier Score Distillation for Efficient One Image to 3D Object Generation
Visual Intelligence 2025
Shuzhou Yang1,2, Yu Wang1, Haijie Li1, Jiarui Meng1, Yanmin Wu1, Xiandong Meng2, Jian Zhang1,2
1 Peking University 2 Pengcheng Laboratory
Abstract
Single image-to-3D generation is pivotal for crafting controllable 3D assets. Although recent inference-only methods have achieved impressive effects, their generation quality still lags behind that of image generation models. We attempt to leverage 3D geometric priors from the novel view diffusion model and 2D appearance priors from an image generation model to combine the geometric messages of the former and appearance priors of the latter. We note that there is a disparity between the generation priors of these two diffusion models, leading to different appearance outputs. Specifically, image generation models tend to deliver more detailed visuals, whereas novel view models produce consistent yet over-smooth results across different views. Directly combining them leads to suboptimal effects due to their appearance conflicts. Hence, we propose a 2D-3D hybrid Fourier score distillation objective function, called hy-FSD. It optimizes 3D Gaussians using 3D priors in the spatial domain to ensure geometric consistency, while exploiting 2D priors in the frequency domain through the Fourier transform for better visual quality. The proposed hy-FSD can be integrated into existing 3D generation methods and produce significant performance gains. With this technique, we have developed an image-to-3D generation pipeline to create high-quality 3D objects within one minute, named Fourier123. Extensive experiments demonstrate that Fourier123 excels at efficiently generating results with rapid convergence speed and a visually appealing output.
Image-to-3D
Comparison
Exported Meshes
Citation
@article{f123,
title = {Hybrid Fourier score distillation for efficient one image to 3D object generation},
author = {Shuzhou Yang and Yu Wang and Haijie Li and Jiarui Meng and Yanmin Wu and Xiandong Meng and Jian Zhang},
year = {2025},
journal = {Visual Intelligence (VI)}
}