SEINE: Short-to-Long Vidoes Diffusion Model for Generative Transition and Prediction

Long Video Demo

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The red boxes represent the transitions generated by our model, while the blue boxes (in the end of video) represent the long-shot videos generated through prediction.

Adventure of a Panda.

Transition Results

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Scene 1

Scene 2

Spiderman becomes a sand sculpture.

Scene 1

Scene 2

A cat from sitting on the coach transfer to lying on the sand.

Scene 1.

Scene 2.

The panda is diligently working in the office and reading a paper.
Scene 1.
Scene 2.
Landscape from autumn transfer to winter.

Image-to-Video Generation

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Input image

Spaceship in the style of star wars, flying in space.

Input Image

Ufos is flying in space.

Diverse Results for Transition

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Reference scenes

The scene has changed from the panda from the raccoon eys into a playing trumpet raccoon. smooth transition.

Auto-regressive Video Prediction Results

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Abstract

Recently video generation has achieved substantial progress with realistic results. Nevertheless, existing AI-generated videos are usually very short clips ("shot-level'') depicting a single scene. To deliver a coherent long video ("story-level''), it is desirable to have creative transition and prediction effects across different clips. This paper presents a short-to-long video diffusion model, SEINE, that focuses on generative transition and prediction. The goal is to generate high-quality long videos with smooth and creative transitions between scenes and varying lengths of shot-level videos. Specifically, we propose a random-mask video diffusion model to automatically generate transitions based on textual descriptions. By providing the images of different scenes as inputs, combined with text-based control, our model generates transition videos that ensure coherence and visual quality. Furthermore, the model can be readily extended to various tasks such as image-to-video animation and autoregressive video prediction. To conduct a comprehensive evaluation of this new generative task, we propose three assessing criteria for smooth and creative transition: temporal consistency, semantic similarity, and video-text semantic alignment. Extensive experiments validate the effectiveness of our approach over existing methods for generative transition and prediction, enabling the creation of story-level long videos.