Dual-Domain Image Synthesis Using Segmentation-Guided GAN

Pytorch implementation of a segmentation-guided approach to synthesise images that integrate features from two distinct domains.

Installation

• Clone Dual-Domain-Synthesis repository:

git clone git@github.com:denabazazian/Dual-Domain-Synthesis.git

cd Dual-Domain-Synthesis

Environment

• Create the conda environment:

conda env create -f DDS.yml

• After installing the required environment dependencies:

conda activate DDS

Run

• Save the segmentation models:

  • Code for train a segmentation model based on one labeled data. This code can be used to train a segmentation model to make the eyes/nose/mouth and hair masks.
  • Generative model for natural faces can be downloaded from: Link
    • This code requires around 5GB of GPU memory and 5 minutes for running. There is a graphical user interface in the segmentation code to label the one-shot ground-truth for the training.

    python save_segmentation_model.py --generator_dir path/to/generator  --segmentation_dir path/to/segmentation --part_key eyes

• Save the source and target generative models:

  • For instance from stylegan2-pytorch and few-shot-gan-adaptation
    • Link to download the natural face generative model: Link
    • Link to download the caricatur generative model: Link
    • Link to download the sketch generative model: Link

• Run the DDS code:
  First code is to run on a random sample_z, second code is for reproducing the results of Figure 5 in the paper by loading their sample_z, third code can be use on a random sample_z or loading a sample_z for saving the iterations of latent optimiser and making a gif of the iterations to see the process.
  (Each one of these following three codes requires around 5GB of GPU memory and 5 minutes for running.)

  • run a random sample_z:

  python DDS_main.py --generator_domain1_dir path/to/generator1 --generator_domain2_dir path/to/generator2 --segmentation_dir path/to/segmentation_root --part_key eyes_nose_mouth --save_path_root path/to/save_root

  • load a sample_z:
    (The latent code [sample_z] of the examples in Figure 5 of the paper to reproduce the results.)

  python DDS_main.py --generator_domain1_dir path/to/generator1 --generator_domain2_dir path/to/generator2 --segmentation_dir path/to/segmentation_root --part_key eyes_nose_mouth --save_path_root path/to/save_root --sample_z_path path/to/sampleZ

  • save iterations:python DDS_main.py --generator_domain1_dir path/to/generator1 --generator_domain2_dir path/to/generator2 --segmentation_dir path/to/segmentation_root --part_key eyes_nose_mouth --save_path_root path/to/save_root --save_iterations_path iterations --sample_z_path path/to/sampleZ
    • make a gif of the iterations: cd path/to/iterations
      • domain1: convert -delay 20 -loop 0 *_D1.png DDS_D1.gif
      • domain2: convert -delay 20 -loop 0 *_D2.png DDS_D2.gif

Source	Target	Dual-Domain	Latent optimisation

BibTeX

If you find our code useful, please cite our paper:

@InProceedings{Bazazian_2022_CVPR,
    author    = {Bazazian, Dena and Calway, Andrew and Damen, Dima},
    title     = {Dual-Domain Image Synthesis Using Segmentation-Guided GAN},
    booktitle = {Proceedings of the IEEE/CVF Conference on Computer Vision and Pattern Recognition (CVPR) Workshops},
    month     = {June},
    year      = {2022},
    pages     = {507-516}
}

Acknowledgement

As mentioned before, the StyleGAN2 model is borrowed from stylegan2-pytorch, domain adaptation models are borrowed from few-shot-gan-adaptation, code for the perceptual model is borrowed from StyleGAN_LatentEditor and source code for training the segmentation models is borrowed from repurpose-gan.