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MoBluRF: Motion Deblurring Neural Radiance Fields for Blurry Monocular Video
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Neural Radiance Fields (NeRF), initially developed for static scenes, have inspired many video novel view synthesis techniques. However, the challenge for video view synthesis arises from motion blur, a consequence of object or camera movements during exposure, which hinders the precise synthesis of sharp spatio-temporal views. In response, we propose a novel motion deblurring NeRF framework for blurry monocular video, called MoBluRF, consisting of a Base Ray Initialization (BRI) stage and a Motion Decomposition-based Deblurring (MDD) stage. In the BRI stage, we coarsely reconstruct dynamic 3D scenes and jointly initialize the base rays which are further used to predict latent sharp rays, using the inaccurate camera pose information from the given blurry frames. In the MDD stage, we introduce a novel Incremental Latent Sharp-rays Prediction (ILSP) approach for the blurry monocular video frames by decomposing the latent sharp rays into global camera motion and local object motion components. We further propose two loss functions for effective geometry regularization and decomposition of static and dynamic scene components without any mask supervision. Experiments show that MoBluRF outperforms qualitatively and quantitatively the recent state-of-the-art methods with large margins.
Forward citations
Cited by 3 Pith papers
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HoliGS: Holistic Gaussian Splatting for Embodied View Synthesis
A deformable Gaussian splatting framework with hierarchical rigid, skeleton-driven, and flow-based warping reconstructs dynamic scenes from long video captures with fast training and rendering.
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A diffusion-enhanced 4D reconstruction pipeline for monocular video that achieves state-of-the-art results on DyCheck by supervising Gaussian splatting with personalized diffusion-generated pseudo-views.
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DBMovi-GS: Dynamic View Synthesis from Blurry Monocular Video via Sparse-Controlled Gaussian Splatting
A Gaussian-splatting method densifies sparse points and combines object and camera motion models to produce sharp novel views from blurry monocular video.
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