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Video Generation Models are General-Purpose Vision Learners

Uses large-scale text-to-video generative pretraining to create GenCeption, a feed-forward perception model that performs diverse vision tasks from text instructions—depth, surface normals, camera pose, referring segmentation, and 3D keypoints—often matching or surpassing specialized models while requiring far less task-specific data.

Introduction

Why this matters

Scaling next-token prediction catalyzed generalist language models; this paper argues that large-scale text-to-video generation can play the analogous role for vision. A video generative diffusion backbone encodes spatiotemporal priors and vision–language alignment that can be repurposed into a feed-forward perception model (GenCeption), enabling many downstream tasks from the same pretrained core.

Key Findings
  • Generative-pretraining → perception: Converting a video diffusion generator into a feed-forward perception model yields competitive or state-of-the-art results on a wide range of tasks (depth, surface normals, camera pose, referring segmentation, 3D keypoints). So what? It shows a single video‑generation backbone can replace multiple specialized perceptual models.

  • Better pretraining baseline: The video generative backbone outperforms alternative video pretraining paradigms (e.g., V-JEPA, Video MAE) under comparable settings. So what? Video generation supplies useful spatiotemporal and multimodal priors that contrastive/MAE-style objectives may miss.

  • Extreme data efficiency: GenCeption matches leading task-specific models while using 7–500× less task data in reported comparisons. So what? Practitioners can reach strong performance with far less labeled data when leveraging generative video pretraining.

  • Emergent generalization: Models trained solely on synthetic human videos generalize to real-world footage and out-of-distribution object categories (animals, robots). So what? The generative objective induces transferable visual representations beyond the training domain.

Who it's for and tradeoffs

Great fit if you are researching generalist vision models, building multimodal foundation models, or exploring data-efficient transfer for complex spatiotemporal tasks. Look elsewhere if you need minimal compute/deployment cost or only static-image solutions—training large video diffusion models remains compute- and data-intensive, and deploying a large generative backbone may incur latency and size constraints. Also expect engineering effort to convert and tune a generative backbone into task-specific feed-forward heads.

Information

  • Websitearxiv.org
  • OrganizationsGoogle DeepMind
  • AuthorsLetian Wang, Chuhan Zhang, Rishabh Kabra, Jasper Uijlings, Steven Waslander, Andrew Zisserman, Joao Carreira, Kaiming He, Misha Andriluka, Eduard Gabriel Bazavan
  • Published date2026/07/10

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