Autonomous Space Robotics Lab

Datasets

The following datasets are intended for research and educational purposes.
Feel free to use them and cite them where possible.

Some of these are in the IJRR dataset collection.


Gravel Pit Lidar-Intensity Imagery Dataset

ROC6 at the Ethier Sand and Gravel Pit in Sudburyn The Gravel Pit Lidar Intensity Imagery Dataset is a collection of 77,754 high-framerate laser range and intensity images gathered at a suitable planetary analogue environment in Sudbury, Ontario, Canada. The data were collected during a visual teach and repeat experiment in which a 1.1km route was taught and then autonomously re-traversed (i.e., the robot drove in its own tracks) every 2-3 hours for 25 hours. The dataset is subdivided into the individual 1.1km traversals of the same route, at varying times of day (ranging from full sunlight to full darkness). This data should be of interest to researchers who develop algorithms for visual odometry, simultaneous localization and mapping (SLAM) or place recognition in three-dimensional, unstructured and natural environments.

Anderson S, McManus C, Dong H, Beerepoot E, and Barfoot T D. “The Gravel Pit Lidar-Intensity Imagery Dataset”. University of Toronto Technical Report ASRL-2012-ABL001. (pdf)


Canadian Planetary Emulation Terrain 3D Mapping Dataset

Clearpath Husky A200 on the CSA Mars Emulation Terrain The Canadian Planetary Emulation Terrain 3D Mapping Dataset is a collection of three-dimensional laser scans gathered at two unique planetary analogue rover test facilities in Canada. These test facilities offer emulated planetary terrain in controlled environments, as well as at manageable scales for algorithmic development. This dataset is subdivided into four individual subsets, gathered using panning laser rangefinders mounted on mobile rover platforms. This data should be of interest to field robotics researchers developing algorithms for laser-based Simultaneous Localization And Mapping (SLAM) of three-dimensional, unstructured, natural terrain. All of the data are presented in human-readable text files, and are accompanied by Matlab parsing scripts to facilitate use thereof.

Tong C, Gingras D, Larose, K, Barfoot T D, and Dupuis E. “The Canadian Planetary Emulation Terrain 3D Mapping Dataset”. International Journal of Robotics Research (IJRR), 2013. doi:10.1177/0278364913478897. (pdf)


Devon Island Rover Navigation Dataset

Devon Island near the Haughton Impact Crater The Devon Island Rover Navigation Dataset is a collection of data gathered at a Mars/Moon analogue site on Devon Island, Nunavut (75°22'N and 89°41'W) suitable for robotics research. The dataset is split into two parts. The first part contains rover traverse data---stereo imagery, sun vectors, inclinometer data, and ground-truth position information from a differential global positioning system (DGPS) collected over a ten-kilometer traverse. The second part contains long-range localization data---3D laser range scans, image panoramas, digital elevation maps, and GPS data useful for global position estimation. All images are available in common formats and other data is presented in human-readable text files. To facilitate use of the data, Matlab parsing scripts are included.

Furgale P T, Carle P, Enright J, and Barfoot T D. “The Devon Island Rover Navigation Dataset”. International Journal of Robotics Research, 31(6):707-713. doi:10.1177/0278364911433135. (pdf)


UTIAS Multi-Robot Cooperative Localization and Mapping Dataset

This 2d indoor dataset collection consists of 8 individual datasets. Each dataset contains odometry and (range and bearing) measurement data from 5 robots, as well as accurate groundtruth data for all robot poses and (15) landmark positions. The dataset is intended for studying the problems of cooperative localization (with only a team robots), cooperative localization with a known map, and cooperative simultaneous localization and mapping (SLAM).





Leung K Y K, Halpern Y, Barfoot T D, and Liu H H T. “The UTIAS Multi-Robot Cooperative Localization and Mapping Dataset”. International Journal of Robotics Research, 30(8):969–974, July 2011. doi:10.1177/0278364911398404. (pdf)