- Update 21.04.27: Update PoseFix code and AMASS dataloader. Lowered PA-MPJPE, MPVPE on 3DPW!
- Update 21.04.09: Update 3DPW evaluation code. Add temporal smoothing code and PA-MPVPE calculation code. They are commented for faster evaluation, but you can uncomment them in
evaluatefunction of${ROOT}/data/PW3D/dataset.py. - Update 21.04.09: Add demo on multiple people, and make a rendered mesh be overlayed on an input image
- Update 20.11.016: Increased accuracy on 3DPW using DarkPose 2D pose outputs.
This repository is the offical Pytorch implementation of Pose2Mesh: Graph Convolutional Network for 3D Human Pose and Mesh Recovery from a 2D Human Pose (ECCV 2020). Below is the overall pipeline of Pose2Mesh.

- We recommend you to use an Anaconda virtual environment. Install PyTorch >= 1.2 according to your GPU driver and Python >= 3.7.2, and run
sh requirements.sh.
- Download the pre-trained Pose2Mesh according to this.
- Prepare SMPL and MANO layers according to this.
- Prepare a pose input, for instance, as
input.npy.input.npyshould contain the coordinates of 2D human joints, which follow the topology of joint sets defined here. The joint orders can be found in each${ROOT}/data/*/dataset.py.
- Run
python demo/run.py --gpu 0 --input_pose demo/h36m_joint_input.npy --joint_set human36. - You can replace
demo/h36m_joint_input.npyandhuman36with your input numpy file and one of{human36,coco,smpl,mano}. - Add
--input_img {img_path}on the command if you want to a rendered mesh overlayed on an input image. - The outputs
demo_pose2d.png,demo_mesh.png, anddemo_mesh_.objwill be saved in${ROOT}/demo/result/.
- Download demo input from here and place them under
${ROOT}/demo/. - Run
python demo/run.py --gpu 0. - Outputs on a sampled image from CrowdPose datasest will be saved in
${ROOT}/demo/result/. - You can change an input image and some details in lines 264~278 of
${ROOT}/demo/run.py.
Here I report the performance of Pose2Mesh.
💪 Update: We increased the performance on 3DPW using GT meshes obtained from NeuralAnnot on COCO and AMASS. The annotations from NeuralAnnot are yet to be released.
💪 Update: The performance on 3DPW has increased using DarkPose 2D detection, which improved HRNet.
Below shows the results when the input is groundtruth 2D human poses. For Human3.6M benchmark, Pose2Mesh is trained on Human3.6M. For 3DPW benchmark, Pose2Mesh is trained on Human3.6M and COCO.
| MPJPE | PA-MPJPE | |
|---|---|---|
| Human36M | 51.28 mm | 35.61 mm |
| 3DPW | 63.10 mm | 35.37 mm |
We provide qualitative results on SURREAL to show that Pose2Mesh can recover 3D shape to some degree. Please refer to the paper for more discussion.
The ${ROOT} is described as below.
${ROOT}
|-- data
|-- demo
|-- lib
|-- experiment
|-- main
|-- manopth
|-- smplpytorch
datacontains data loading codes and soft links to images and annotations directories.democontains demo codes.libcontains kernel codes for Pose2Mesh.maincontains high-level codes for training or testing the network.experimentcontains the outputs of the system, whic include train logs, trained model weights, and visualized outputs.
The data directory structure should follow the below hierarchy.
${ROOT}
|-- data
| |-- Human36M
| | |-- images
| | |-- annotations
| | |-- J_regressor_h36m_correct.npy
| | |-- absnet_output_on_testset.json
| |-- MuCo
| | |-- data
| | | |-- augmented_set
| | | |-- unaugmented_set
| | | |-- MuCo-3DHP.json
| | | |-- smpl_param.json
| |-- COCO
| | |-- images
| | | |-- train2017
| | | |-- val2017
| | |-- annotations
| | |-- J_regressor_coco.npy
| | |-- hrnet_output_on_valset.json
| |-- PW3D
| | |-- data
| | | |-- 3DPW_latest_train.json
| | | |-- 3DPW_latest_validation.json
| | | |-- darkpose_3dpw_testset_output.json
| | | |-- darkpose_3dpw_validationset_output.json
| | |-- imageFiles
| |-- AMASS
| | |-- data
| | | |-- cmu
| |-- SURREAL
| | |-- data
| | | |-- train.json
| | | |-- val.json
| | | |-- hrnet_output_on_testset.json
| | | |-- simple_output_on_testset.json
| | |-- images
| | | |-- train
| | | |-- test
| | | |-- val
| |-- FreiHAND
| | |-- data
| | | |-- training
| | | |-- evaluation
| | | |-- freihand_train_coco.json
| | | |-- freihand_train_data.json
| | | |-- freihand_eval_coco.json
| | | |-- freihand_eval_data.json
| | | |-- hrnet_output_on_testset.json
| | | |-- simple_output_on_testset.json
- Download Human3.6M parsed data and SMPL parameters [data][SMPL parameters from SMPLify-X]
- Download MuCo parsed/composited data and SMPL parameters [data][SMPL parameters from SMPLify-X]
- Download COCO SMPL parameters [SMPL parameters from SMPLify]
- Download AMASS SMPL parameters [offical site]
- Download SURREAL parsed data [data]
- Download 3DPW parsed data [data]
- Download FreiHAND parsed data [data] (
bboxinfreihand_eval_coco.jsonis from Detectron2) - All annotation files follow MS COCO format.
- If you want to add your own dataset, you have to convert it to MS COCO format.
- Images need to to be downloaded, but if needed you can download them from their offical sites.
- 2D pose detection outputs can be downloaded here: Human36M, COCO, 3DPW, SURREAL, FreiHAND
If you have a problem with 'download limit' when trying to download datasets from google drive links, please try this trick.
- Go the shared folder, which contains files you want to copy to your drive
- Select all the files you want to copy
- In the upper right corner click on three vertical dots and select “make a copy”
- Then, the file is copied to your personal google drive account. You can download it from your personal account.
- For the SMPL layer, I used smplpytorch. The repo is already included in
${ROOT}/smplpytorch. - Download
basicModel_f_lbs_10_207_0_v1.0.0.pkl,basicModel_m_lbs_10_207_0_v1.0.0.pkl, andbasicModel_neutral_lbs_10_207_0_v1.0.0.pklfrom here (female & male) and here (neutral) to${ROOT}/smplpytorch/smplpytorch/native/models. For the MANO layer, I used manopth. The repo is already included in${ROOT}/manopth. DownloadMANO_RIGHT.pklfrom here at${ROOT}/manopth/mano/models.
The experiment directory will be created as below.
${ROOT}
|-- experiment
| |-- exp_*
| | |-- checkpoint
| | |-- graph
| | |-- vis
-
experimentcontains train/test results of Pose2Mesh on various benchmark datasets. We recommed you to create the folder as a soft link to a directory with large storage capacity. -
exp_*is created for each train/test command. The wildcard symbol refers to the time of the experiment train/test started. Default timezone is UTC+9, but you can set to your local time. -
checkpointcontains the model checkpoints for each epoch. -
graphcontains visualized train logs of error and loss. -
viscontains*.objfiles of meshes and images with 2D human poses or human meshes.
Download pretrained model weights from here to a corresponding directory.
${ROOT}
|-- experiment
| |-- posenet_human36J_train_human36
| |-- posenet_cocoJ_train_human36_coco_muco
| |-- posenet_smplJ_train_surreal
| |-- posenet_manoJ_train_freihand
| |-- pose2mesh_human36J_train_human36
| |-- pose2mesh_cocoJ_train_human36_coco_muco
| |-- pose2mesh_smplJ_train_surreal
| |-- pose2mesh_manoJ_train_freihand
| |-- posenet_human36J_gt_train_human36
| |-- posenet_cocoJ_gt_train_human36_coco
| |-- pose2mesh_human36J_gt_train_human36
| |-- pose2mesh_cocoJ_gt_train_human36_coco
- Pose2Mesh uses different joint sets from Human3.6M, COCO, SMPL, and MANO for Human3.6M, 3DPW, SURREAL, and FreiHAND benchmarks respectively. For the COCO joint set, we manually add 'Pelvis' and 'Neck' joints by computing the middle point of 'L_Hip' and 'R_Hip', and 'L_Shoulder' and 'R_Shoulder' respectively.
- In the
lib/core/config.py, you can change settings of the system including a train/test dataset to use, a pre-defined joint set, a pre-trained PoseNet, a learning schedule, GT usage, and so on. - Note that the first dataset on the
DATASET.{train/test}_listshould callbuild_coarse_graphsfunction for the graph convolution setting. Refer to the last line of__init__function in${ROOT}/data/Human36M/dataset.py.
Select the config file in ${ROOT}/asset/yaml/ and train. You can change the train set and pretrained posenet by your own *.yml file.
1. Pre-train PoseNet
To train from the scratch, you should pre-train PoseNet first.
Run
python main/train.py --gpu 0,1,2,3 --cfg ./asset/yaml/posenet_{input joint set}_train_{dataset list}.yml
2. Train Pose2Mesh
Copy best.pth.tar in ${ROOT}/experiment/exp_*/checkpoint/ to ${ROOT}/experiment/posenet_{input joint set}_train_{dataset list}/. Or download the pretrained weights following this.
Run
python main/train.py --gpu 0,1,2,3 --cfg ./asset/yaml/pose2mesh_{input joint set}_train_{dataset list}.yml
Select the config file in ${ROOT}/asset/yaml/ and test. You can change the pretrained model weight. To save sampled outputs to obj files, change TEST.vis value to True in the config file.
Run
python main/test.py --gpu 0,1,2,3 --cfg ./asset/yaml/{model name}_{input joint set}_test_{dataset name}.yml
@InProceedings{Choi_2020_ECCV_Pose2Mesh,
author = {Choi, Hongsuk and Moon, Gyeongsik and Lee, Kyoung Mu},
title = {Pose2Mesh: Graph Convolutional Network for 3D Human Pose and Mesh Recovery from a 2D Human Pose},
booktitle = {European Conference on Computer Vision (ECCV)},
year = {2020}
}
I2L-MeshNet_RELEASE
3DCrowdNet_RELEASE
TCMR_RELEASE
Hand4Whole_RELEASE
HandOccNet
NeuralAnnot_RELEASE




