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Distributed Arcface Training in Pytorch
The "arcface_torch" repository is the official implementation of the ArcFace algorithm. It supports distributed and sparse training with multiple distributed training examples, including several memory-saving techniques such as mixed precision training and gradient checkpointing. It also supports training for ViT models and datasets including WebFace42M and Glint360K, two of the largest open-source datasets. Additionally, the repository comes with a built-in tool for converting to ONNX format, making it easy to submit to MFR evaluation systems.
Requirements
To avail the latest features of PyTorch, we have upgraded to version 1.12.0.
- Install PyTorch (torch>=1.12.0).
- (Optional) Install DALI, our doc for install_dali.md.
pip install -r requirement.txt.
How to Training
To train a model, execute the train.py script with the path to the configuration files. The sample commands provided below demonstrate the process of conducting distributed training.
1. To run on one GPU:
python train_v2.py configs/ms1mv3_r50_onegpu
Note:
It is not recommended to use a single GPU for training, as this may result in longer training times and suboptimal performance. For best results, we suggest using multiple GPUs or a GPU cluster.
2. To run on a machine with 8 GPUs:
torchrun --nproc_per_node=8 train.py configs/ms1mv3_r50
3. To run on 2 machines with 8 GPUs each:
Node 0:
torchrun --nproc_per_node=8 --nnodes=2 --node_rank=0 --master_addr="ip1" --master_port=12581 train.py configs/wf42m_pfc02_16gpus_r100
Node 1:
torchrun --nproc_per_node=8 --nnodes=2 --node_rank=1 --master_addr="ip1" --master_port=12581 train.py configs/wf42m_pfc02_16gpus_r100
4. Run ViT-B on a machine with 24k batchsize:
torchrun --nproc_per_node=8 train_v2.py configs/wf42m_pfc03_40epoch_8gpu_vit_b
Download Datasets or Prepare Datasets
- MS1MV2 (87k IDs, 5.8M images)
- MS1MV3 (93k IDs, 5.2M images)
- Glint360K (360k IDs, 17.1M images)
- WebFace42M (2M IDs, 42.5M images)
- Your Dataset, Click Here!
Note:
If you want to use DALI for data reading, please use the script 'scripts/shuffle_rec.py' to shuffle the InsightFace style rec before using it.
Example:
python scripts/shuffle_rec.py ms1m-retinaface-t1
You will get the "shuffled_ms1m-retinaface-t1" folder, where the samples in the "train.rec" file are shuffled.
Model Zoo
- The models are available for non-commercial research purposes only.
- All models can be found in here.
- Baidu Yun Pan: e8pw
- OneDrive
Performance on IJB-C and ICCV2021-MFR
ICCV2021-MFR testset consists of non-celebrities so we can ensure that it has very few overlap with public available face recognition training set, such as MS1M and CASIA as they mostly collected from online celebrities. As the result, we can evaluate the FAIR performance for different algorithms.
For ICCV2021-MFR-ALL set, TAR is measured on all-to-all 1:1 protocal, with FAR less than 0.000001(e-6). The globalised multi-racial testset contains 242,143 identities and 1,624,305 images.
1. Training on Single-Host GPU
| Datasets | Backbone | MFR-ALL | IJB-C(1E-4) | IJB-C(1E-5) | log |
|---|---|---|---|---|---|
| MS1MV2 | mobilefacenet-0.45G | 62.07 | 93.61 | 90.28 | click me |
| MS1MV2 | r50 | 75.13 | 95.97 | 94.07 | click me |
| MS1MV2 | r100 | 78.12 | 96.37 | 94.27 | click me |
| MS1MV3 | mobilefacenet-0.45G | 63.78 | 94.23 | 91.33 | click me |
| MS1MV3 | r50 | 79.14 | 96.37 | 94.47 | click me |
| MS1MV3 | r100 | 81.97 | 96.85 | 95.02 | click me |
| Glint360K | mobilefacenet-0.45G | 70.18 | 95.04 | 92.62 | click me |
| Glint360K | r50 | 86.34 | 97.16 | 95.81 | click me |
| Glint360k | r100 | 89.52 | 97.55 | 96.38 | click me |
| WF4M | r100 | 89.87 | 97.19 | 95.48 | click me |
| WF12M-PFC-0.2 | r100 | 94.75 | 97.60 | 95.90 | click me |
| WF12M-PFC-0.3 | r100 | 94.71 | 97.64 | 96.01 | click me |
| WF12M | r100 | 94.69 | 97.59 | 95.97 | click me |
| WF42M-PFC-0.2 | r100 | 96.27 | 97.70 | 96.31 | click me |
| WF42M-PFC-0.2 | ViT-T-1.5G | 92.04 | 97.27 | 95.68 | click me |
| WF42M-PFC-0.3 | ViT-B-11G | 97.16 | 97.91 | 97.05 | click me |
2. Training on Multi-Host GPU
| Datasets | Backbone(bs*gpus) | MFR-ALL | IJB-C(1E-4) | IJB-C(1E-5) | Throughout | log |
|---|---|---|---|---|---|---|
| WF42M-PFC-0.2 | r50(512*8) | 93.83 | 97.53 | 96.16 | ~5900 | click me |
| WF42M-PFC-0.2 | r50(512*16) | 93.96 | 97.46 | 96.12 | ~11000 | click me |
| WF42M-PFC-0.2 | r50(128*32) | 94.04 | 97.48 | 95.94 | ~17000 | click me |
| WF42M-PFC-0.2 | r100(128*16) | 96.28 | 97.80 | 96.57 | ~5200 | click me |
| WF42M-PFC-0.2 | r100(256*16) | 96.69 | 97.85 | 96.63 | ~5200 | click me |
| WF42M-PFC-0.0018 | r100(512*32) | 93.08 | 97.51 | 95.88 | ~10000 | click me |
| WF42M-PFC-0.2 | r100(128*32) | 96.57 | 97.83 | 96.50 | ~9800 | click me |
r100(128*32) means backbone is r100, batchsize per gpu is 128, the number of gpus is 32.
3. ViT For Face Recognition
| Datasets | Backbone(bs) | FLOPs | MFR-ALL | IJB-C(1E-4) | IJB-C(1E-5) | Throughout | log |
|---|---|---|---|---|---|---|---|
| WF42M-PFC-0.3 | r18(128*32) | 2.6 | 79.13 | 95.77 | 93.36 | - | click me |
| WF42M-PFC-0.3 | r50(128*32) | 6.3 | 94.03 | 97.48 | 95.94 | - | click me |
| WF42M-PFC-0.3 | r100(128*32) | 12.1 | 96.69 | 97.82 | 96.45 | - | click me |
| WF42M-PFC-0.3 | r200(128*32) | 23.5 | 97.70 | 97.97 | 96.93 | - | click me |
| WF42M-PFC-0.3 | VIT-T(384*64) | 1.5 | 92.24 | 97.31 | 95.97 | ~35000 | click me |
| WF42M-PFC-0.3 | VIT-S(384*64) | 5.7 | 95.87 | 97.73 | 96.57 | ~25000 | click me |
| WF42M-PFC-0.3 | VIT-B(384*64) | 11.4 | 97.42 | 97.90 | 97.04 | ~13800 | click me |
| WF42M-PFC-0.3 | VIT-L(384*64) | 25.3 | 97.85 | 98.00 | 97.23 | ~9406 | click me |
WF42M means WebFace42M, PFC-0.3 means negivate class centers sample rate is 0.3.
4. Noisy Datasets
| Datasets | Backbone | MFR-ALL | IJB-C(1E-4) | IJB-C(1E-5) | log |
|---|---|---|---|---|---|
| WF12M-Flip(40%) | r50 | 43.87 | 88.35 | 80.78 | click me |
| WF12M-Flip(40%)-PFC-0.1* | r50 | 80.20 | 96.11 | 93.79 | click me |
| WF12M-Conflict | r50 | 79.93 | 95.30 | 91.56 | click me |
| WF12M-Conflict-PFC-0.3* | r50 | 91.68 | 97.28 | 95.75 | click me |
WF12M means WebFace12M, +PFC-0.1* denotes additional abnormal inter-class filtering.
Speed Benchmark
Arcface-Torch is an efficient tool for training large-scale face recognition training sets. When the number of classes in the training sets exceeds one million, the partial FC sampling strategy maintains the same accuracy while providing several times faster training performance and lower GPU memory utilization. The partial FC is a sparse variant of the model parallel architecture for large-scale face recognition, utilizing a sparse softmax that dynamically samples a subset of class centers for each training batch. During each iteration, only a sparse portion of the parameters are updated, leading to a significant reduction in GPU memory requirements and computational demands. With the partial FC approach, it is possible to train sets with up to 29 million identities, the largest to date. Furthermore, the partial FC method supports multi-machine distributed training and mixed precision training.
More details see speed_benchmark.md in docs.
- Training Speed of Various Parallel Techniques (Samples per Second) on a Tesla V100 32GB x 8 System (Higher is Optimal)
- means training failed because of gpu memory limitations.
| Number of Identities in Dataset | Data Parallel | Model Parallel | Partial FC 0.1 |
|---|---|---|---|
| 125000 | 4681 | 4824 | 5004 |
| 1400000 | 1672 | 3043 | 4738 |
| 5500000 | - | 1389 | 3975 |
| 8000000 | - | - | 3565 |
| 16000000 | - | - | 2679 |
| 29000000 | - | - | 1855 |
- GPU Memory Utilization of Various Parallel Techniques (MB per GPU) on a Tesla V100 32GB x 8 System (Lower is Optimal)
| Number of Identities in Dataset | Data Parallel | Model Parallel | Partial FC 0.1 |
|---|---|---|---|
| 125000 | 7358 | 5306 | 4868 |
| 1400000 | 32252 | 11178 | 6056 |
| 5500000 | - | 32188 | 9854 |
| 8000000 | - | - | 12310 |
| 16000000 | - | - | 19950 |
| 29000000 | - | - | 32324 |
Citations
@inproceedings{deng2019arcface,
title={Arcface: Additive angular margin loss for deep face recognition},
author={Deng, Jiankang and Guo, Jia and Xue, Niannan and Zafeiriou, Stefanos},
booktitle={Proceedings of the IEEE Conference on Computer Vision and Pattern Recognition},
pages={4690--4699},
year={2019}
}
@inproceedings{An_2022_CVPR,
author={An, Xiang and Deng, Jiankang and Guo, Jia and Feng, Ziyong and Zhu, XuHan and Yang, Jing and Liu, Tongliang},
title={Killing Two Birds With One Stone: Efficient and Robust Training of Face Recognition CNNs by Partial FC},
booktitle={Proceedings of the IEEE/CVF Conference on Computer Vision and Pattern Recognition (CVPR)},
month={June},
year={2022},
pages={4042-4051}
}
@inproceedings{zhu2021webface260m,
title={Webface260m: A benchmark unveiling the power of million-scale deep face recognition},
author={Zhu, Zheng and Huang, Guan and Deng, Jiankang and Ye, Yun and Huang, Junjie and Chen, Xinze and Zhu, Jiagang and Yang, Tian and Lu, Jiwen and Du, Dalong and Zhou, Jie},
booktitle={Proceedings of the IEEE/CVF Conference on Computer Vision and Pattern Recognition},
pages={10492--10502},
year={2021}
}