Benchmarks for semi-supervised domain generalization.

Overview

Semi-Supervised Domain Generalization

This code is the official implementation of the following paper: Semi-Supervised Domain Generalization with Stochastic StyleMatch. The paper addresses a practical and yet under-studied setting for domain generalization: one needs to use limited labeled data along with abundant unlabeled data gathered from multiple distinct domains to learn a generalizable model. This setting greatly challenges existing domain generalization methods, which are not designed to deal with unlabeled data and are thus less scalable in practice. Our approach, StyleMatch, extends the pseudo-labeling-based FixMatch—a state-of-the-art semi-supervised learning framework—in two crucial ways: 1) a stochastic classifier is designed to reduce overfitting and 2) the two-view consistency learning paradigm in FixMatch is upgraded to a multi-view version with style augmentation as the third complementary view. Two benchmarks are constructed for evaluation. Please see the paper at https://arxiv.org/abs/2106.00592 for more details.

How to setup the environment

This code is built on top of Dassl.pytorch. Please follow the instructions provided in https://github.com/KaiyangZhou/Dassl.pytorch to install the dassl environment, as well as to prepare the datasets, PACS and OfficeHome. The five random labeled-unlabeled splits can be downloaded at the following links: pacs, officehome. The splits need to be extracted to the two datasets' folders. Assume you put the datasets under the directory $DATA, the structure should look like

$DATA/
    pacs/
        images/
        splits/
        splits_ssdg/
    office_home_dg/
        art/
        clipart/
        product/
        real_world/
        splits_ssdg/

The style augmentation is based on AdaIN and the implementation is based on this code https://github.com/naoto0804/pytorch-AdaIN. Please download the weights of the decoder and the VGG from https://github.com/naoto0804/pytorch-AdaIN and put them under a new folder ssdg-benchmark/weights.

How to run StyleMatch

The script is provided in ssdg-benchmark/scripts/StyleMatch/run_ssdg.sh. You need to update the DATA variable that points to the directory where you put the datasets. There are three input arguments: DATASET, NLAB (total number of labels), and CFG. See the tables below regarding how to set the values for these variables.

Dataset NLAB
ssdg_pacs 210 or 105
ssdg_officehome 1950 or 975
CFG Description
v1 FixMatch + stochastic classifier + T_style
v2 FixMatch + stochastic classifier + T_style-only (i.e. no T_strong)
v3 FixMatch + stochastic classifier
v4 FixMatch

v1 refers to StyleMatch, which is our final model. See the config files in configs/trainers/StyleMatch for the detailed settings.

Here we give an example. Say you want to run StyleMatch on PACS under the 10-labels-per-class setting (i.e. 210 labels in total), simply run the following commands in your terminal,

conda activate dassl
cd ssdg-benchmark/scripts/StyleMatch
bash run_ssdg.sh ssdg_pacs 210 v1

In this case, the code will run StyleMatch in four different setups (four target domains), each for five times (five random seeds). You can modify the code to run a single experiment instead of all at once if you have multiple GPUs.

At the end of training, you will have

output/
    ssdg_pacs/
        nlab_210/
            StyleMatch/
                resnet18/
                    v1/ # contains results on four target domains
                        art_painting/ # contains five folders: seed1-5
                        cartoon/
                        photo/
                        sketch/

To show the results, simply do

python parse_test_res.py output/ssdg_pacs/nlab_210/StyleMatch/resnet18/v1 --multi-exp

Citation

If you use this code in your research, please cite our paper

@article{zhou2021stylematch,
    title={Semi-Supervised Domain Generalization with Stochastic StyleMatch},
    author={Zhou, Kaiyang and Loy, Chen Change and Liu, Ziwei},
    journal={arXiv preprint arXiv:2106.00592},
    year={2021}
}
Owner
Kaiyang
Researcher in computer vision and machine learning :)
Kaiyang
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