Several recent studies have focused on developing free-flying robots (NASA Astrobee and JAXA Int-Ball, etc.) that perform a variety of intra-vehicular activities and tasks in microgravity on the international space station(ISS). While accurate and robust in-spacecraft navigation is critical for the missions of intra-vehicular robots, a dataset for visual navigation in a spacecraft has not yet existed. When considering challenges for in-cabin visual navigation, intra-vehicular environments differ from indoor and outdoor scenes on Earth due to the nature of spacecraft: absence of a gravity vector, occlusions from unorganized cargo bags, etc. To address these issues, we release new visual navigation datasets acquired in challenging interior environments of ISS, which have not been covered by existing datasets. The datasets are captured by the Astrobee free-flying robots onboard the ISS since 2019 during intra-vehicular activities, including interior environmental surveys (e.g., systems inspection, monitoring, and sound level measurements). We also benchmark six state-of-the-art visual odometry (VO) and SLAM algorithms on the proposed Astrobee datasets. You can see more deltails in our paper.
Our datasets consist of various intra-vehicular activities of Astrobee free-flying robots currently operating on the ISS between May 13, 2019 and July 14, 2022.
The datasets are collected inside the largest single ISS module, the Japanese experiment module (JEM) nicknamed Kibo, and contain ground-truth 6-DoF camera poses.
We provide each Astrobee sequence in the TUM RGB-D format and the original bag file. Each sequence is compressed as a single ZIP archive which contains a description file, images,
calibration parameters, ground-truth, and IMU measurements.
sequence | duration(s) | Download | Original bag file |
---|---|---|---|
td_roll | 63 | link | link |
td_pitch | 75 | link | link |
td_yaw | 50 | link | link |
td_dock | 98 | link |
sequence | duration(s) | Download | Original bag file |
---|---|---|---|
iva_kibo_trans | 229 | link | link |
iva_kibo_rot | 196 | link | link |
iva_hatch_inspection1 | 403 | link | |
iva_hatch_inspection2 | 521 | link | |
iva_watch_queenbee | 236 | link | |
iva_robot_occulusion | 192 | link | |
iva_ARtag | 62 | link | link |
iva_badlocal_rotation | 313 | link | |
iva_badlocal_descend | 244 | link |
sequence | duration(s) | Download | Original bag file |
---|---|---|---|
ff_return_journey_forward | 402 | link | link |
ff_return_journey_up | 413 | link | link |
ff_return_journey_down | 398 | link | |
ff_return_journey_left | 303 | link | link |
ff_return_journey_right | 328 | link | |
ff_return_journey_rot | 108 | link | link |
ff_JEM2USL_dark | 32 | link | |
ff_USL2JEM_bright | 92 | link | |
ff_nod2_dark | 296 | link | |
ff_nod2_bright | 265 | link |
We provide each Astrobee sequence in the TUM RGB-D format in the following format:
We provide both original raw distorted images(with FOV lens distortion) and the undistorted images using existing dataset parsing tools.
We provide the Ground-truth trajectories in text file containing 6-DoF camera poses for all images. We also provide the angular rates and acceleration measurements from IMU.
We provide the intrinsic camera parameters for both (raw / undistorted) images in text file.
The Astrobee free-flying IVA robots used for dataset collection. This is the positions of the sensors and the rigid body transformations that link them.
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