williamyang1991 / FRESCO

[CVPR 2024] FRESCO: Spatial-Temporal Correspondence for Zero-Shot Video Translation
https://www.mmlab-ntu.com/project/fresco/
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controlnet diffusion video-processing

FRESCO - Official PyTorch Implementation

FRESCO: Spatial-Temporal Correspondence for Zero-Shot Video Translation
Shuai Yang, Yifan Zhou, Ziwei Liu and Chen Change Loy
in CVPR 2024
Project Page | Paper | Supplementary Video | Input Data and Video Results

Web Demo

Abstract: The remarkable efficacy of text-to-image diffusion models has motivated extensive exploration of their potential application in video domains. Zero-shot methods seek to extend image diffusion models to videos without necessitating model training. Recent methods mainly focus on incorporating inter-frame correspondence into attention mechanisms. However, the soft constraint imposed on determining where to attend to valid features can sometimes be insufficient, resulting in temporal inconsistency. In this paper, we introduce FRESCO, intra-frame correspondence alongside inter-frame correspondence to establish a more robust spatial-temporal constraint. This enhancement ensures a more consistent transformation of semantically similar content across frames. Beyond mere attention guidance, our approach involves an explicit update of features to achieve high spatial-temporal consistency with the input video, significantly improving the visual coherence of the resulting translated videos. Extensive experiments demonstrate the effectiveness of our proposed framework in producing high-quality, coherent videos, marking a notable improvement over existing zero-shot methods.

Features:

https://github.com/williamyang1991/FRESCO/assets/18130694/aad358af-4d27-4f18-b069-89a1abd94d38

Updates

TODO

Installation

  1. Clone the repository.
git clone https://github.com/williamyang1991/FRESCO.git
cd FRESCO
  1. You can simply set up the environment with pip based on requirements.txt

    • Create a conda environment and install torch >= 2.0.0. Here is an example script to install torch 2.0.0 + CUDA 11.8 :
      conda create --name diffusers python==3.8.5
      conda activate diffusers
      pip install torch==2.0.0 torchvision==0.15.1 --index-url https://download.pytorch.org/whl/cu118
    • Run pip install -r requirements.txt in an environment where torch is installed.
    • We have tested on torch 2.0.0/2.1.0 and diffusers 0.19.3
    • If you use new versions of diffusers, you need to modify my_forward()
  2. Run the installation script. The required models will be downloaded in ./model, ./src/ControlNet/annotator and ./src/ebsynth/deps/ebsynth/bin.

    • Requires access to huggingface.co
python install.py
  1. You can run the demo with run_fresco.py
python run_fresco.py ./config/config_music.yaml
  1. For issues with Ebsynth, please refer to issues

(1) Inference

WebUI (recommended)

python webUI.py

The Gradio app also allows you to flexibly change the inference options. Just try it for more details.

Upload your video, input the prompt, select the model and seed, and hit:

Select the model:

overview

We provide abundant advanced options to play with

Advanced options for single frame processing 1. **Frame resolution**: resize the short side of the video to 512. 2. ControlNet related: - **ControlNet strength**: how well the output matches the input control edges - **Control type**: HED edge, Canny edge, Depth map - **Canny low/high threshold**: low values for more edge details 3. SDEdit related: - **Denoising strength**: repaint degree (low value to make the output look more like the original video) - **Preserve color**: preserve the color of the original video 4. SD related: - **Steps**: denoising step - **CFG scale**: how well the output matches the prompt - **Added prompt/Negative prompt**: supplementary prompts 5. FreeU related: - **FreeU first/second-stage backbone factor**: =1 do nothing; >1 enhance output color and details - **FreeU first/second-stage skip factor**: =1 do nothing; <1 enhance output color and details
Advanced options for FRESCO constraints 1. Keyframe related - **Number of frames**: Total frames to be translated - **Number of frames in a batch**: To avoid out-of-memory, use small batch size - **Min keyframe interval (s_min)**: The keyframes will be detected at least every s_min frames - **Max keyframe interval (s_max)**: The keyframes will be detected at most every s_max frames 2. FRESCO constraints - FRESCO-guided Attention: - **spatial-guided attention**: Check to enable spatial-guided attention - **cross-frame attention**: Check to enable efficient cross-frame attention - **temporal-guided attention**: Check to enable temporal-guided attention - FRESCO-guided optimization: - **spatial-guided optimization**: Check to enable spatial-guided optimization - **temporal-guided optimization**: Check to enable temporal-guided optimization 3. **Background smoothing**: Check to enable background smoothing (best for static background)
Advanced options for the full video translation 1. **Gradient blending**: apply Poisson Blending to reduce ghosting artifacts. May slow the process and increase flickers. 2. **Number of parallel processes**: multiprocessing to speed up the process. Large value (4) is recommended.

option

Command Line

We provide a flexible script run_fresco.py to run our method.

Set the options via a config file. For example,

python run_fresco.py ./config/config_music.yaml

We provide some examples of the config in config directory. Most options in the config is the same as those in WebUI. Please check the explanations in the WebUI section.

We provide a separate Ebsynth python script video_blend.py with the temporal blending algorithm introduced in Stylizing Video by Example for interpolating style between key frames. It can work on your own stylized key frames independently of our FRESCO algorithm.

video_blend.py [-h] [--output OUTPUT] [--fps FPS] [--key_ind KEY_IND [KEY_IND ...]] [--key KEY] [--n_proc N_PROC] [-ps] [-ne] [-tmp] name

positional arguments:
  name                  Path to input video

optional arguments:
  -h, --help            show this help message and exit
  --output OUTPUT       Path to output video
  --fps FPS             The FPS of output video
  --key_ind KEY_IND [KEY_IND ...]
                        key frame index
  --key KEY             The subfolder name of stylized key frames
  --n_proc N_PROC       The max process count
  -ps                   Use poisson gradient blending
  -ne                   Do not run ebsynth (use previous ebsynth output)
  -tmp                  Keep temporary output

An example

python video_blend.py ./output/dog/ --key keys --key_ind 0 11 23 33 49 60 72 82 93 106 120 137 151 170 182 193 213 228 238 252 262 288 299  --output ./output/dog/blend.mp4 --fps 24 --n_proc 4 -ps

For the details, please refer to our previous work Rerender-A-Video (The mainly difference is the way of specifying key frame index)

(2) Results

Key frame translation

a red car turns in the winter an African American boxer wearing black boxing gloves punches towards the camera, cartoon style a cartoon spiderman in black suit, black shoes and white gloves is dancing a beautiful woman holding her glasses in CG style

Full video translation

https://github.com/williamyang1991/FRESCO/assets/18130694/bf8bfb82-5cb7-4b2f-8169-cf8dbf408b54

Citation

If you find this work useful for your research, please consider citing our paper:

@inproceedings{yang2024fresco,
 title = {FRESCO: Spatial-Temporal Correspondence for Zero-Shot Video Translation},
 author = {Yang, Shuai and Zhou, Yifan and Liu, Ziwei and and Loy, Chen Change},
 booktitle = {CVPR},
 year = {2024},
}

Acknowledgments

The code is mainly developed based on Rerender-A-Video, ControlNet, Stable Diffusion, GMFlow and Ebsynth.