Generative 4D Scene Gaussian Splatting with Object View-Synthesis Priors
Wen-Hsuan Chu, Lei Ke, Jianmeng Liu, Mingxiao Huo, Pavel Tokmakov, Katerina Fragkiadaki

TL;DR
GenMOJO is a novel method that generates dynamic 4D scenes from monocular videos by decomposing scenes into objects, optimizing deformable Gaussians, and leveraging generative priors for realistic view synthesis.
Contribution
It introduces a scene decomposition approach with object-wise Gaussian optimization and integrates generative priors for improved 4D scene reconstruction and view synthesis.
Findings
Outperforms existing methods in realistic scene rendering
Produces more accurate 2D and 3D point tracks
Generates highly realistic novel views
Abstract
We tackle the challenge of generating dynamic 4D scenes from monocular, multi-object videos with heavy occlusions, and introduce GenMOJO, a novel approach that integrates rendering-based deformable 3D Gaussian optimization with generative priors for view synthesis. While existing models perform well on novel view synthesis for isolated objects, they struggle to generalize to complex, cluttered scenes. To address this, GenMOJO decomposes the scene into individual objects, optimizing a differentiable set of deformable Gaussians per object. This object-wise decomposition allows leveraging object-centric diffusion models to infer unobserved regions in novel viewpoints. It performs joint Gaussian splatting to render the full scene, capturing cross-object occlusions, and enabling occlusion-aware supervision. To bridge the gap between object-centric priors and the global frame-centric…
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Taxonomy
TopicsAdvanced Vision and Imaging · Advanced Image and Video Retrieval Techniques · Remote Sensing and LiDAR Applications
MethodsALIGN · Diffusion · Sparse Evolutionary Training
