This repository provides sample code and scripts for accessing the training and testing data, as well as evaluation tools. Please refer to TartanAir for more information about the dataset. You can also reach out to contributors on the associated AirSim GitHub.
This dataset was used to train the first generalizable learning-based visual odometry TartanVO, which achieved better performance than geometry-based VO methods in challenging cases. Please check out the paper and published TartanVO code.
The data is divided into two levels (Easy and Hard) in terms of the motion patterns. It is organized in trajectory folders. You can download data from different cameras (left or right), with different data types (RGB, depth, segmentation, camera pose, and flow). Please see data type page for the camera intrinsics, extrinsics and other information.
!! NOTE: The size of all the data is up to 3TB! It could take days to download. We also added the option to use the dataset directly on Azure without requiring a download. Please select the data type you really need before download. You can also go to TartanAir to download the sample files for a better understanding of the data types.
ROOT
|
--- ENV_NAME_0 # environment folder
| |
| ---- Easy # difficulty level
| | |
| | ---- P000 # trajectory folder
| | | |
| | | +--- depth_left # 000000_left_depth.npy - 000xxx_left_depth.npy
| | | +--- depth_right # 000000_right_depth.npy - 000xxx_right_depth.npy
| | | +--- flow # 000000_000001_flow/mask.npy - 000xxx_000xxx_flow/mask.npy
| | | +--- image_left # 000000_left.png - 000xxx_left.png
| | | +--- image_right # 000000_right.png - 000xxx_right.png
| | | +--- seg_left # 000000_left_seg.npy - 000xxx_left_seg.npy
| | | +--- seg_right # 000000_right_seg.npy - 000xxx_right_seg.npy
| | | ---- pose_left.txt
| | | ---- pose_right.txt
| | |
| | +--- P001
| | .
| | .
| | |
| | +--- P00K
| |
| +--- Hard
|
+-- ENV_NAME_1
.
.
|
+-- ENV_NAME_N
We provide a python script download_training.py for the data downloading. You can also take look at the URL list to download the spesific files you want.
-
Specify an output directory
--output-dir OUTPUTDIR
-
Select file type:
--rgb
--depth
--seg
--flow
-
Select difficulty level:
--only-hard
--only-easy
[NO TAG]: both 'hard' and 'easy' levels
-
Select camera:
--only-left
--only-right
[NO TAG]: both 'left' and 'right' cameras
-
Select flow type when --flow is set:
--only-flow
--only-mask
[NO TAG]: both 'flow' and 'mask' files
For example, download all the RGB images from the left camera:
python download_training.py --output-dir OUTPUTDIR --rgb --only-left
Download all the depth data from both cameras in hard level:
python download_training.py --output-dir OUTPUTDIR --depth --only-hard
Download all optical flow data without flow-mask:
python download_training.py --output-dir OUTPUTDIR --flow --only-flow
Download all the files in the dataset (could be very slow due to the large size):
python download_training.py --output-dir OUTPUTDIR --rgb --depth --seg --flow
NOTE
We found that using AzCopy, which is a tool provided by MicroSoft, is much faster than directly downloading by the URLs. Please try the following steps if you want to accelerate the downloading process.
-
Download the AzCopy and put the executable to your system path.
-
Run the above commands with a --azcopy tag.
Yet another way to access the data is to use an Azure virtual machine. In this way, you don't have to download the data to your local machine. You can use Azure SDKs to access the data on the cloud. Here is a sample notebook for accessing and visualizing the data. NOTE: This sample notebook can only be used on Azure. To download the data to your local machine, please refer to the download instructions here or the dataset website for the sample data.
You can click the download links below. In Linux system, you can also run the following command to download all the files:
wget -r -i download_cvpr_slam_test.txt
-
Monocular track (Size: 7.65 GB)
MD5 hash: 009b52e7d7b224ffb8a203db294ac9fb
mono
|
--- ME000 # monocular easy trajectory 0
| |
| ---- 000000.png # RGB image 000000
| ---- 000001.png # RGB image 000001
| .
| .
| ---- 000xxx.png # RGB image 000xxx
|
+-- ME001 # monocular easy trajectory 1
.
.
+-- ME007 # monocular easy trajectory 7
|
+-- MH000 # monocular hard trajectory 0
.
.
|
+-- MH007 # monocular hard trajectory 7
-
Stereo track (Size: 17.51 GB)
MD5 hash: 8a3363ff2013f147c9495d5bb161c48e
stereo
|
--- SE000 # stereo easy trajectory 0
| |
| ---- image_left # left image folder
| | |
| | ---- 000000_left.png # RGB left image 000000
| | ---- 000001_left.png # RGB left image 000001
| | .
| | .
| | ---- 000xxx_left.png # RGB left image 000xxx
| |
| ---- image_right # right image folder
| |
| ---- 000000_right.png # RGB right image 000000
| ---- 000001_right.png # RGB right image 000001
| .
| .
| ---- 000xxx_right.png # RGB right image 000xxx
|
+-- SE001 # stereo easy trajectory 1
.
.
+-- SE007 # stereo easy trajectory 7
|
+-- SH000 # stereo hard trajectory 0
.
.
|
+-- SH007 # stereo hard trajectory 7
-
Both monocular and stereo tracks (Size: 25.16 GB)
MD5 hash: ea176ca274135622cbf897c8fa462012
More information about the CVPR Visual SLAM challenge
-
The monocular track
-
The stereo track
Now the CVPR challenge has completed, the ground truth poses for the above testing trajectories are available here. If you need any further support, please send an email to [email protected].
Following the TUM dataset and the KITTI dataset, we adopt three metrics: absolute trajectory error (ATE), the relative pose error (RPE), a modified version of KITTI VO metric.
Check out the sample code:
cd evaluation
python tartanair_evaluator.py
Note that our camera poses are defined in the NED frame. That is to say, the x-axis is pointing to the camera's forward, the y-axis is pointing to the camera's right, the z-axis is pointing to the camera's downward. You can use the cam2ned function in the evaluation/trajectory_transform.py to transform the trajectory from the camera frame to the NED frame.
More technical details are available in the TartanAir paper. Please cite this as:
@article{tartanair2020iros,
title = {TartanAir: A Dataset to Push the Limits of Visual SLAM},
author = {Wang, Wenshan and Zhu, Delong and Wang, Xiangwei and Hu, Yaoyu and Qiu, Yuheng and Wang, Chen and Hu, Yafei and Kapoor, Ashish and Scherer, Sebastian},
booktitle = {2020 IEEE/RSJ International Conference on Intelligent Robots and Systems (IROS)},
year = {2020}
}
Email [email protected] if you have any questions about the data source. To post problems in the Github issue is also welcome. You can also reach out to contributors on the associated GitHub.
This software is BSD licensed.
Copyright (c) 2020, Carnegie Mellon University All rights reserved.
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