Towards End-to-end Video-based Eye Tracking

Related tags

Deep LearningEVE
Overview

Towards End-to-end Video-based Eye Tracking

The code accompanying our ECCV 2020 publication and dataset, EVE.

Setup

Preferably, setup a Docker image or virtual environment (virtualenvwrapper is recommended) for this repository. Please note that we have tested this code-base in the following environments:

  • Ubuntu 18.04 / A Linux-based cluster system (CentOS 7.8)
  • Python 3.6 / Python 3.7
  • PyTorch 1.5.1

Clone this repository somewhere with:

git clone [email protected]:swook/EVE
cd EVE/

Then from the base directory of this repository, install all dependencies with:

pip install -r requirements.txt

Please note the PyTorch official installation guide for setting up the torch and torchvision packages on your specific system.

You will also need to setup ffmpeg for video decoding. On Linux, we recommend installing distribution-specific packages (usually named ffmpeg). If necessary, check out the official download page or compilation instructions.

Usage

Information on the code framework

Configuration file system

All available configuration parameters are defined in src/core/config_default.py.

In order to override the default values, one can do:

  1. Pass the parameter via a command-line parameter to train.py or inference.py. Note that in this case, replace all _ characters with -. E.g. the config. parameter refine_net_enabled becomes --refine-net-enabled 1. Note that boolean parameters can be passed in via either 0/no/false or 1/yes/true.
  2. Create a JSON file such as src/configs/eye_net.json or src/configs/refine_net.json.

The order of application are:

  1. Default parameters
  2. JSON-provided parameters, in order of JSON file declaration. For instance, in the command python train.py config1.json config2.json, config2.json overrides config1.json entries should there be any overlap.
  3. CLI-provided parameters.

Automatic logging to Google Sheets

This framework implements an automatic logging code of all parameters, loss terms, and metrics to a Google Sheets document. This is done by the gspread library. To enable this possibility, follow these instructions:

  1. Follow the instructions at https://gspread.readthedocs.io/en/latest/oauth2.html#for-end-users-using-oauth-client-id
  2. Set --gsheet-secrets-json-file to a path to the credentials JSON file, and set --gsheet-workbook-key to the document key. This key is the part after https://docs.google.com/spreadsheets/d/ and before any query or hash parameters.

An example config JSON file can be found at src/configs/sample_gsheet.json.

Training a model

To train a model, simply run python train.py from src/ with the appropriate configuration changes that are desired (see "Configuration file system" above).

Note, that in order to resume the training of an existing model you must provide the path to the output folder via the --resume-from argument.

Also, at every fresh run of train.py, a unique identifier is generated to produce a unique output folder in outputs/EVE/. Hence, it is recommended to use the Google Sheets logging feature (see "Automatic logging to Google Sheets") to keep track of your models.

Running inference

The single-sample inference script at src/inference.py takes in the same arguments as train.py but expects two arguments in particular:

  • --input-path is the path to a basler.mp4 or webcam_l.mp4 or webcam_c.mp4 or webcam_r.mp4 that exists in the EVE dataset.
  • --output-path is a path to a desired output location (ending in .mp4).

This script works for both training, validation, and test samples and shows the reference point-of-gaze ground-truth when available.

Citation

If using this code-base and/or the EVE dataset in your research, please cite the following publication:

@inproceedings{Park2020ECCV,
  author    = {Seonwook Park and Emre Aksan and Xucong Zhang and Otmar Hilliges},
  title     = {Towards End-to-end Video-based Eye-Tracking},
  year      = {2020},
  booktitle = {European Conference on Computer Vision (ECCV)}
}

Q&A

Q: How do I use this code for screen-based eye tracking?

A: This code does not offer actual eye tracking. Rather, it concerns the benchmarking of the video-based gaze estimation methods outlined in the original paper. Extending this code to support an easy-to-use software for screen-based eye tracking is somewhat non-trivial, due to requirements on camera calibration (intrinsics, extrinsics), and an efficient pipeline for accurate and stable real-time eye or face patch extraction. Thus, we consider this to be beyond the scope of this code repository.

Q: Where are the test set labels?

A: Our public evaluation server and leaderboard are hosted by Codalab at https://competitions.codalab.org/competitions/28954. This allows for evaluations on our test set to be consistent and reliable, and encourage competition in the field of video-based gaze estimation. Please note that the performance reported by Codalab is not strictly speaking comparable to the original paper's results, as we only perform evaluation on a large subset of the full test set. We recommend acquiring the updated performance figures from the leaderboard.

Comments
  • use against new dataset

    use against new dataset

    Hi,

    Can this code be used at inference time against in-the-wild mp4 that do not necessarily provide an accompanying H5? The more I work with this codebase, the more it looks obvious that w/o the mp4 being TOBII generated, this will not work. Is this true?

    thank you

    opened by inisar 0
  • File name parser

    File name parser

    File name parser can be made more robust to your own dataset files.
    Currently doesn't work for both webcam_l.mp4 and webcam_l_eyes.mp4 Please see below for filename and correction I made to make it work. src/core/inference.py try: camera_type = components[-1][:-4] except AssertionError: camera_type = camera_type[:-5]

    opened by inisar 0
  • How to synchronize the data from camera and eye tracker?

    How to synchronize the data from camera and eye tracker?

    Hi, @swook . I use OpenCV to capture the frames, what borthers me is that I don't know how to attach a timestamp to each frame and ensure the interval of each timestamp nearly the same. By using the datetime.time(), I can get the current time and regard it as the timestamp, but the interval between each of the timestamps seems to be different and has a big gap. So could you share me some details about your method which is used to synchronize the data?Or It would be very nice if you can share the source code or your method with me. Thanks.

    opened by Kihensarn 0
  • How to get the 3D gaze origin

    How to get the 3D gaze origin

    Hi, @swook Thanks for your great job, but I have a question about how to get the 3D gaze origin(determined during data pre-processing). The paper said "In pre-processing the EVEdataset, we apply a 3DMM fitting approach with interocular-distance-based scale-normalization to alleviate these issues" . However, I'm not sure about the specific process of this step. What should I do if I want to convert from landmark to 3D gaze origin? Besides, if it is possible to open some code of this part? Thanks a lot!

    opened by TeresaKumo 0
  • About the result

    About the result

    I trained the eve model with eve data, ran eval_codalab.py and got pkl file as a result. I also ran eval_codalabl.py and got pkl file from the pretrained model weights(from https://github.com/swook/EVE/releases/tag/v0.0 - eve_refinenet_CGRU_oa_skip.pt) Then, I compared these two results and the numbers seem to match. For example, from the pretrained model, I got [960. 540.] for PoG_px_final and got [963.0835 650.5635] for my model.

    However, in the eve paper, table3 shows that the PoG_px in GRU model with oa+skip is 95.59 Numbers in paper is 1/10 of the numbers i got from eval_codalab and not sure what went wrong. Are they supposed to match? If they are not supposed to match, how do you calculate the numbers?

    Also, in the result page of codalab, the gaze direction(angular error) is shown, but the eval_codalab.py doesn't store gaze direction. (Keys_to_store=['left pupil size' , 'right pupil', 'pog__px_initial', 'pog_px_final', 'timestamp']) How should I get gaze direction error in degree?

    opened by chaeyoun 1
Owner
Seonwook Park
Seonwook Park
Code for MentorNet: Learning Data-Driven Curriculum for Very Deep Neural Networks

MentorNet: Learning Data-Driven Curriculum for Very Deep Neural Networks This is the code for the paper: MentorNet: Learning Data-Driven Curriculum fo

Google 302 Dec 23, 2022
PyTorch implementation of convolutional neural networks-based text-to-speech synthesis models

Deepvoice3_pytorch PyTorch implementation of convolutional networks-based text-to-speech synthesis models: arXiv:1710.07654: Deep Voice 3: Scaling Tex

Ryuichi Yamamoto 1.8k Jan 08, 2023
Relative Uncertainty Learning for Facial Expression Recognition

Relative Uncertainty Learning for Facial Expression Recognition The official implementation of the following paper at NeurIPS2021: Title: Relative Unc

35 Dec 28, 2022
Vision-and-Language Navigation in Continuous Environments using Habitat

Vision-and-Language Navigation in Continuous Environments (VLN-CE) Project Website — VLN-CE Challenge — RxR-Habitat Challenge Official implementations

Jacob Krantz 132 Jan 02, 2023
Code for "Learning to Regrasp by Learning to Place"

Learning2Regrasp Learning to Regrasp by Learning to Place, CoRL 2021. Introduction We propose a point-cloud-based system for robots to predict a seque

Shuo Cheng (成硕) 18 Aug 27, 2022
Constraint-based geometry sketcher for blender

Constraint-based sketcher addon for Blender that allows to create precise 2d shapes by defining a set of geometric constraints like tangent, distance,

1.7k Dec 31, 2022
GUI for a Vocal Remover that uses Deep Neural Networks.

GUI for a Vocal Remover that uses Deep Neural Networks.

4.4k Jan 07, 2023
High-performance moving least squares material point method (MLS-MPM) solver.

High-Performance MLS-MPM Solver with Cutting and Coupling (CPIC) (MIT License) A Moving Least Squares Material Point Method with Displacement Disconti

Yuanming Hu 2.2k Dec 31, 2022
Official Pytorch Implementation of Relational Self-Attention: What's Missing in Attention for Video Understanding

Relational Self-Attention: What's Missing in Attention for Video Understanding This repository is the official implementation of "Relational Self-Atte

mandos 43 Dec 07, 2022
a Pytorch easy re-implement of "YOLOX: Exceeding YOLO Series in 2021"

A pytorch easy re-implement of "YOLOX: Exceeding YOLO Series in 2021" 1. Notes This is a pytorch easy re-implement of "YOLOX: Exceeding YOLO Series in

91 Dec 26, 2022
Graph Transformer Architecture. Source code for

Graph Transformer Architecture Source code for the paper "A Generalization of Transformer Networks to Graphs" by Vijay Prakash Dwivedi and Xavier Bres

NTU Graph Deep Learning Lab 561 Jan 08, 2023
Pull sensitive data from users on windows including discord tokens and chrome data.

⭐ For a 🍪 Pegasus Pull sensitive data from users on windows including discord tokens and chrome data. Features 🟩 Discord tokens 🟩 Geolocation data

Addi 44 Dec 31, 2022
这是一个利用facenet和retinaface实现人脸识别的库,可以进行在线的人脸识别。

Facenet+Retinaface:人脸识别模型在Keras当中的实现 目录 注意事项 Attention 所需环境 Environment 文件下载 Download 预测步骤 How2predict 参考资料 Reference 注意事项 该库中包含了两个网络,分别是retinaface和fa

Bubbliiiing 31 Nov 15, 2022
Official code for the ICLR 2021 paper Neural ODE Processes

Neural ODE Processes Official code for the paper Neural ODE Processes (ICLR 2021). Abstract Neural Ordinary Differential Equations (NODEs) use a neura

Cristian Bodnar 50 Oct 28, 2022
Continuous Diffusion Graph Neural Network

We present Graph Neural Diffusion (GRAND) that approaches deep learning on graphs as a continuous diffusion process and treats Graph Neural Networks (GNNs) as discretisations of an underlying PDE.

Twitter Research 227 Jan 05, 2023
A tool to estimate time varying instantaneous reproduction number during epidemics

EpiEstim A tool to estimate time varying instantaneous reproduction number during epidemics. It is described in the following paper: @article{Cori2013

MRC Centre for Global Infectious Disease Analysis 78 Dec 19, 2022
A Fast and Accurate One-Stage Approach to Visual Grounding, ICCV 2019 (Oral)

One-Stage Visual Grounding ***** New: Our recent work on One-stage VG is available at ReSC.***** A Fast and Accurate One-Stage Approach to Visual Grou

Zhengyuan Yang 118 Dec 05, 2022
PyTorch implementation of DeepDream algorithm

neural-dream This is a PyTorch implementation of DeepDream. The code is based on neural-style-pt. Here we DeepDream a photograph of the Golden Gate Br

121 Nov 05, 2022
GUPNet - Geometry Uncertainty Projection Network for Monocular 3D Object Detection

GUPNet This is the official implementation of "Geometry Uncertainty Projection Network for Monocular 3D Object Detection". citation If you find our wo

Yan Lu 103 Dec 28, 2022
Generative code template for PixelBeasts 10k NFT project.

generator-template Generative code template for combining transparent png attributes into 10,000 unique images. Used for the PixelBeasts 10k NFT proje

Yohei Nakajima 9 Aug 24, 2022