Need help with Face-Pose-Net?
Click the “chat” button below for chat support from the developer who created it, or find similar developers for support.

About the developer

462 Stars 106 Forks 119 Commits 15 Opened issues


Estimate 3D face pose (6DoF) or 11 parameters of 3x4 projection matrix by a Convolutional Neural Network

Services available


Need anything else?

Contributors list

# 93,103
99 commits
# 72,071
16 commits
# 113,819
1 commit


Teaser Extreme face alignment examples: Faces rendered to a 45 degrees yaw angle (aligned to half profile) using our FacePoseNet. Images were taken from the IJB-A collection and represent extreme viewing conditions, including near profile views, occlusions, and low resolution. Such conditions are often too hard for existing face landmark detection methods to handle yet easily aligned with our FacePoseNet.

This page contains DCNN model and python code to robustly estimate 6 degrees of freedom, 3D face pose from an unconstrained image, without the use of face landmark detectors. The method is described in the paper:

F.-J. Chang, A. Tran, T. Hassner, I. Masi, R. Nevatia, G. Medioni, "FacePoseNet: Making a Case for Landmark-Free Face Alignment", in 7th IEEE International Workshop on Analysis and Modeling of Faces and Gestures, ICCV Workshops, 2017 [1].

This release bundles up our FacePoseNet (FPN) with the Face Renderer from Masi et al. [2,5], which is available separately from this project page.

The result is an end-to-end pipeline that seamlessly estimates facial pose and produces multiple rendered views to be used for face alignment and data augmentation.


Updates (Modified and New features, 12/20/2018)

  • FPN structure is changed to ResNet-101 for better pose prediction fpn-resnet101
  • Two versions of FPNs (under the assumption of weak perspective transformation) are added:
  • (1) Predict 6DoF head pose (scale, pitch, yaw, roll, translationx, translationy):
  • (2) Predict 11 parameters of the 3x4 projection matrix:
  • The codes to convert 6DoF head pose to 3x4 projection matrix is here
  • The codes to convert 11 parameters / 3x4 projection matrix to 6DoF head pose is here
  • The corresponding 3D shape and landmarks can be obtained by predicted 6DoF head pose 3D shape from 6DoF or by predicted 11 parameters 3D shape from 11 parameters
  • Download new FPN models: Please put all model files here in the folder
  • Download BFM models: Please put BFM shape and expression files here in the folder
  • Run new FPN to predict 6DoF head pose:
    $ python  
  • Run new FPN to predict 11DoF parameters of the projection matrix:

    $ python  
    We provide a sample input list available here.
     is the x,y coordinates of the upper-left point, the width, and the height of the tight face bounding box, either obtained manually, by the face detector or by the landmark detector. The predicted 6DoF and 11DoF results would be saved in output_6DoF folder and output_ProjMat folder respectively. The output 3D shapes and landmarks by 6DoF and 11DoF are saved in output_6DoF folder and in output_ProjMat folder respectively. You can visualize the 3D shapes and landmarks via Matlab.
  • The same renderer can be used. Instead of feeding into the 6DoF pose, you need to feed into the predicted landmarks either from 6DoF head pose or from 3x4 projection matrix. Please see an example in of this project page


  • 6DoF 3D Head Pose estimation + 3D rendered facial views.
  • Does not use fragile landmark detectors
  • Robustness on images landmark detectors struggle with (low rez., occluded, etc.)
  • Extremely fast pose estimation
  • Both CPU and GPU supported
  • Provides better face recognition through better face alignment than alignment using state of the art landmark detectors [1]


The code has been tested on Linux only. On Linux you can rely on the default version of python, installing all the packages needed from the package manager or on Anaconda Python and install required packages through


Note: no landmarks are used in our method, although you can still project the landmarks on the input image using the estimated pose. See the paper for further details.


  • Important: In order to download both FPN code and the renderer use
    git clone --recursive
  • Important: Please download the learned models from and make sure that the FPN models are stored in the folder

Run it

The alignment and rendering can be used from the command line in the following, different ways.

To run it directly on a list of images (software will run FPN to estimate the pose and then render novel views based on the estimated pose):

$ python 

We provide a sample input list available here.


 is the face bounding box information, either obtained manually or by the face detector. 

Sample Results

Please see the input images here and rendered outputs here.

input: ###


rendering: ###

sbj10 sbj10 sbj10 sbj10 sbj10

Current Limitations

FPN is currently trained with a single 3D generic shape, without accounting for facial expressions. Addressing these is planned as future work.


Please cite our paper with the following bibtex if you use our face renderer:

      title={{F}ace{P}ose{N}et: Making a Case for Landmark-Free Face Alignment},
      booktitle = {7th IEEE International Workshop on Analysis and Modeling of Faces and Gestures, ICCV Workshops},
      Feng-ju Chang
      and Anh Tran 
      and Tal Hassner 
      and Iacopo Masi 
      and Ram Nevatia
      and G\'{e}rard Medioni},


[1] F.-J. Chang, A. Tran, T. Hassner, I. Masi, R. Nevatia, G. Medioni, "FacePoseNet: Making a Case for Landmark-Free Face Alignment", in 7th IEEE International Workshop on Analysis and Modeling of Faces and Gestures, ICCV Workshops, 2017

[2] I. Masi*, A. Tran*, T. Hassner*, J. Leksut, G. Medioni, "Do We Really Need to Collect Million of Faces for Effective Face Recognition? ", ECCV 2016, * denotes equal authorship

[3] I. Masi, S. Rawls, G. Medioni, P. Natarajan "Pose-Aware Face Recognition in the Wild", CVPR 2016

[4] T. Hassner, S. Harel, E. Paz and R. Enbar "Effective Face Frontalization in Unconstrained Images", CVPR 2015

[5] I. Masi, T. Hassner, A. Tran, and G. Medioni, "Rapid Synthesis of Massive Face Sets for Improved Face Recognition", FG 2017


  • August 2017, First Release


The SOFTWARE PACKAGE provided in this page is provided "as is", without any guarantee made as to its suitability or fitness for any particular use. It may contain bugs, so use of this tool is at your own risk. We take no responsibility for any damage of any sort that may unintentionally be caused through its use.


If you have any questions, drop an email to [email protected], [email protected], [email protected] or [email protected] or leave a message below with GitHub (log-in is needed).

We use cookies. If you continue to browse the site, you agree to the use of cookies. For more information on our use of cookies please see our Privacy Policy.