Vivid-ZOO: Multi-View Video Generation with Diffusion Model
King Abdullah University
of Science and Technology
Abstract
While diffusion models have shown impressive performance in 2D image/video generation, diffusion-based Text-to-Multi-view-Video (T2MVid) generation remains underexplored. The new challenges posed by T2MVid generation lie in the lack of massive captioned multi-view videos and the complexity of modeling such multi-dimensional distribution. To this end, we propose a novel diffusion-based pipeline that generates high-quality multi-view videos centered around a dynamic 3D object from text. Specifically, we factor the T2MVid problem into viewpoint-space and time components. Such factorization allows us to combine and reuse layers of advanced pre-trained multi-view image and 2D video diffusion models to ensure multi-view consistency as well as temporal coherence for the generated multi-view videos, largely reducing the training cost. We further introduce alignment modules to align the latent spaces of layers from the pre-trained multi-view and the 2D video diffusion models, addressing the reused layers' incompatibility that arises from the domain gap between 2D and multi-view data. In support of this and future research, we further contribute a captioned multi-view video dataset. Experimental results demonstrate that our method generates high-quality multi-view videos, exhibiting vivid motions, temporal coherence, and multi-view consistency, given a variety of text prompts.
Pipeline
Overview of the proposed Vivid-ZOO. Left: Given a text prompt, our diffusion model generates multi-view videos. Instead of training from scratch, the multi-view spatial module reuses the pre-trained multi-view image diffusion model, and the multi-view temporal module leverages the 2D temporal layers of the pre-trained 2D video diffusion model to enforce temporal coherence. Right: Jointly reusing the pre-trained multi-view image diffusion model and temporal 2D layers poses new challenges due to the large gap between their training data (multi-view images of synthetic 3D objects versus real-world 2D videos). We introduce 3D-2D alignment and 2D-3D alignment to address the domain gap issue.
Our Results
A yellow and black striped wasp bee, 3d asset
Beautiful, intricate butterfly, 3d asset
a dog wearing a outfit, 3d asset
a blue-winged dragon, also depicted as a flying monster, 3d asset
an astronaut riding a horse, 3d asset
a full-bodied tiger walking, 3d asset
a blue flag attached to a flagpole, with a smooth curve, 3d asset
A panda dancing
a spiked sea turtle, 3d asset
a dog wearing a outfit, 3d asset
a sea turtle, 3d asset
a pixelated Minecraft character walking, 3d asset
a man riding a motorcycle, 3d asset
4D Dataset
If you would like to download our 4D Dataset, please fill out this Google Form, once accepted, we will send you the link to download the data. You should receive the link within one or two days.
BibTex
@misc{li2024vividzoo,
  title={Vivid-ZOO: Multi-View Video Generation with Diffusion Model}, 
  author={Bing Li and Cheng Zheng and Wenxuan Zhu and Jinjie Mai and Biao Zhang and Peter Wonka and Bernard Ghanem},
  year={2024},
  eprint={2406.08659},
  archivePrefix={arXiv},
}
Acknowledgement: We borrow the website style from DreamBooth. We sincerely appreciate DreamBooth authors for their awesome template.