Relit-LiVE: Relight Video by Jointly Learning Environment Video
Summary
This paper introduces Relit-LiVE, a novel video relighting framework that produces physically consistent results without requiring camera pose information by using raw reference images and joint environment video prediction.
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Paper page - Relit-LiVE: Relight Video by Jointly Learning Environment Video
Source: https://huggingface.co/papers/2605.06658
Abstract
A novel video relighting framework called Relit-LiVE is presented that produces physically consistent results without requiring camera pose information by incorporating raw reference images and using environment video prediction for joint relighting and environment map generation.
Recent advances have shown that large-scalevideo diffusion modelscan be repurposed asneural renderersby first decomposing videos intointrinsic scene representationsand then performingforward renderingunder novel illumination. While promising, this paradigm fundamentally relies on accurate intrinsic decomposition, which remains highly unreliable for real-world videos and often leads to distorted appearances, broken materials, and accumulated temporal artifacts during relighting. In this work, we present Relit-LiVE, a novelvideo relightingframework that produces physically consistent, temporally stable results without requiring prior knowledge of camera pose. Our key insight is to explicitly introduce raw reference images into the rendering process, enabling the model to recover critical scene cues that are inevitably lost or corrupted in intrinsic representations. Furthermore, we propose a novelenvironment video predictionformulation that simultaneously generates relit videos and per-frame environment maps aligned with each camera viewpoint in a singlediffusion process. This joint prediction enforces stronggeometric-illumination alignmentand naturally supports dynamic lighting and camera motion, significantly improving physical consistency invideo relightingwhile easing the requirement of known per-frame camera pose. Extensive experiments demonstrate that Relit-LiVE consistently outperforms state-of-the-artvideo relightingandneural renderingmethods across synthetic and real-world benchmarks. Beyond relighting, our framework naturally supports a wide range of downstream applications, including scene-level rendering, material editing, object insertion, and streamingvideo relighting. The Project is available at https://github.com/zhuxing0/Relit-LiVE.
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