CETCAM: Camera-Controllable Video Generation via Consistent and Extensible Tokenization
Zelin Zhao, Xinyu Gong, Bangya Liu, Ziyang Song, Jun Zhang, Suhui Wu, Yongxin Chen, Hao Zhang

TL;DR
CETCAM introduces a novel framework for camera-controllable video generation that eliminates the need for camera annotations by using geometry-aware tokens, achieving state-of-the-art consistency and realism.
Contribution
It proposes a new tokenization scheme and training process that enable precise camera control without annotations, improving scalability and flexibility in video generation.
Findings
Achieves state-of-the-art geometric consistency and temporal stability.
Demonstrates strong adaptability to inpainting and layout control.
Outperforms existing methods across multiple benchmarks.
Abstract
Achieving precise camera control in video generation remains challenging, as existing methods often rely on camera pose annotations that are difficult to scale to large and dynamic datasets and are frequently inconsistent with depth estimation, leading to train-test discrepancies. We introduce CETCAM, a camera-controllable video generation framework that eliminates the need for camera annotations through a consistent and extensible tokenization scheme. CETCAM leverages recent advances in geometry foundation models, such as VGGT, to estimate depth and camera parameters and converts them into unified, geometry-aware tokens. These tokens are seamlessly integrated into a pretrained video diffusion backbone via lightweight context blocks. Trained in two progressive stages, CETCAM first learns robust camera controllability from diverse raw video data and then refines fine-grained visual…
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Taxonomy
TopicsAdvanced Vision and Imaging · Generative Adversarial Networks and Image Synthesis · 3D Shape Modeling and Analysis
