UrbanLoco

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面向城市峡谷等复杂场景的多传感器数据集,包含激光雷达、相机等全套传感器数据,用于自动驾驶的建图与定位算法评测。

UrbanLoco: A Full Sensor Suite Dataset for Mapping and Localization in Urban Scenes

暂无版本484star43fork同步于 2026-11-07 07:32 UTC

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README 未提供安装或运行命令,数据需从 Dropbox 或百度网盘手动下载
硬件要求按 README 说明

README 未说明运行硬件要求;数据为离线 ROSBAG 数据集,需自行准备存储空间(单段 9.73 GB 至 67.2 GB)与 ROS/ROS2 环境回放。

支持 Apple Silicon
下载:源码 zip·GitHub Releases(安装包)本站不镜像安装包

项目说明

由 README 自动翻译提炼

城市峡谷场景下的多传感器建图与定位数据集,含 LiDAR、相机、IMU 与 GNSS

面向城市峡谷等复杂场景的多传感器数据集,包含激光雷达、相机等全套传感器数据,用于自动驾驶的建图与定位算法评测。

核心能力

  • 提供旧金山与香港共 13 条轨迹、总长超 40 公里
  • 覆盖城市峡谷、桥梁、隧道、急弯等复杂地形
  • 每段数据含 3D LiDAR、相机、IMU、GNSS 与 SPAN-CPT 真值
  • 以 ROSBAG 形式发布,附带相机内外参与传感器外参标定文件
  • 香港部分数据以 ROS2 格式提供

容易踩的坑

数据集体积大,单段最大 67.2 GB,需预留充足磁盘空间;香港数据多为 ROS2 格式,与旧金山 ROS1 bag 不通用;GNSS 接收机型号标注为 to be updated,使用前需核对

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    README 原文

    未翻译

    UrbanLoco

    UrbanLoco: A Full Sensor Suite Dataset for Mapping and Localization in Urban Scenes

    Abstract

    Mapping and localization is a critical module of autonomous driving, and significant achievements have been reached in this field. Beyond Global Navigation Satellite System (GNSS), research in point cloud registration, visual feature matching, and inertia navigation has greatly enhanced the accuracy and robustness of mapping and localization in different scenarios. However, highly urbanized scenes are still challenging: LIDAR- and camera-based methods perform poorly with numerous dynamic objects; the GNSS-based solutions experience signal loss and multipath problems; the inertia measurement units (IMU) suffer from drifting. Unfortunately, current public datasets either do not adequately address this urban challenge or do not provide enough sensor information related to mapping and localization. Here we present UrbanLoco: a mapping/localization dataset collected in highly-urbanized environments with a full sensor-suite. The dataset includes 13 trajectories collected in San Francisco and Hong Kong, covering a total length of over 40 kilometers. Our dataset includes a wide variety of urban terrains: urban canyons, bridges, tunnels, sharp turns, etc. More importantly, our dataset includes information from LIDAR, cameras, IMU, and GNSS receivers.

    Keywords: Mpapping, Localization, Urban Areas, Full Sensor Suit, Hong Kong, San Francisco

    Important Notes:

    • Algorithm Benchmark and contribution: Researches are welcomed to share their navigation solution results, source code to the UrbanLoco dataset after a code review process, e,g, code for visual/interial navigation system or LiDAR SLAM, etc.

    Contact Authors:

    Related Papers :

    • Weisong Wen, Yiyang Zhou, Guohao Zhang, Saman Fahandezh-Saadi, Xiwei Bai, Wei Zhan, Masayoshi Tomizuka, and Li-Ta Hsu, UrbanLoco: A Full Sensor Suite Dataset for Mapping and Localization in Urban Scenes, ICRA 2020, Paris, France.

    if you use UrbanLoco for your academic research, please cite our paper.

    Work related to urbanLoco Dataset :

    • Liu, Jinxu, Wei Gao, and Zhanyi Hu. "Optimization-Based Visual-Inertial SLAM Tightly Coupled with Raw GNSS Measurements." arXiv preprint arXiv:2010.11675 (2020).paper
    • Li, Kailai, Meng Li, and Uwe D. Hanebeck. "Towards high-performance solid-state-lidar-inertial odometry and mapping." arXiv preprint arXiv:2010.13150 (2020). Code

    1. California Dataset

    1.1 Sensor Setups

    The platform for data collection in Hong Kong is a Honda Fit. The platform is equipped with the following sensors:

    • 3D LiDAR snesor (RS-LiDAR-32, Robosense): ( 360 HFOV, +15~-25 VFOV, 200m range, 10Hz)
    • IMU (Xsens Mti 10, 100 Hz, AHRS)
    • GNSS receiver: u-blox M8T or u-blox F9P (to be updated)
    • camera x 6:(1920X1200,79.4°X96.8°, 10Hz)
    • SPAN-CPT:(RTK GNSS/INS,RMSE: 5cm, 1Hz)

    Intrinsic and Extrinsic Parameters, ROSBAG Information

    The coordinates transformation between multiple sensors, and intrinsic parameters of camera can be found via Intrinsic and Extrinsic Parameters.

    • ROSBAG file which includes:
      • GNSS positioning (solution directly from GNSS receiver): /ublox_node/fix
      • 3D LiDAR point clouds: /rslidar_points
      • Camera:
        • camera 0: camera_array/cam0/image_raw/compressed
        • camera 1: camera_array/cam1/image_raw/compressed
        • camera 2: camera_array/cam2/image_raw/compressed
        • camera 3: camera_array/cam3/image_raw/compressed
        • camera 4: camera_array/cam4/image_raw/compressed
        • camera 5: camera_array/cam5/image_raw/compressed
      • IMU: /imu_raw
      • SPAN-CPT: /novatel_data/inspvax

    1.2. Dataset 1: CABayBridge20190828151211

    Brief: Dataset CABayBridge20190828151211 is collected near Bay Bridge of San Francisco.

    Some key features are as follows:

    Date of CollectionTotal SizeSensorsDownloadFeatures
    2019/08/2844.6 GBGNSS/LiDAR/Camera/IMU/SPAN-CPTDropbox, BaiduDynamic Objects, Sharp Turn

    1.3. Dataset 2: CAMarketStreet20190828155828

    Brief: Dataset CAMarketStreet20190828155828 is collected near market street of San Francisco.

    Some key features are as follows:

    Date of CollectionTotal SizeSensorsDownloadFeatures
    2019/08/2860.6 GBGNSS/LiDAR/Camera/IMU/SPAN-CPTDropbox, BaiduDynamic Objects, high-rising buildings

    1.4. Dataset 3: CARussianHill20190828173350

    Brief: Dataset CARussianHill20190828173350 is collected near Bay Bridge of San Francisco.

    Some key features are as follows:

    Date of CollectionTotal SizeSensorsDownloadFeatures
    2019/08/2867.2 GBGNSS/LiDAR/Camera/IMU/SPAN-CPTDropbox, BaiduDynamic Objects, high-rising buildings

    1.5. Dataset 4: CAChinaTown20190828180248

    Brief: Dataset CAChinaTown20190828180248 is collected near a China Town of San Francisco.

    Some key features are as follows:

    Date of CollectionTotal SizeSensorsDownloadFeatures
    2019/08/2854.3 GBGNSS/LiDAR/Camera/IMU/SPAN-CPTDropbox, BaiduDynamic Objects, high-rising buildings

    1.6. Dataset 5: CAColiTower20190828184706

    Brief: Dataset CAColiTower20190828184706 is collected near Coli Tower of San Francisco.

    Some key features are as follows:

    Date of CollectionTotal SizeSensorsDownloadFeatures
    2019/08/289.73 GBGNSS/LiDAR/Camera/IMU/SPAN-CPTDropbox, BaiduDynamic Objects, high-rising buildings

    1.7. Dataset 6: CALombardStreet20190828190411

    Brief: Dataset CALombardStreet20190828190411 is collected near Lombard street of San Francisco.

    Some key features are as follows:

    Date of CollectionTotal SizeSensorsDownloadFeatures
    2019/08/289.83 GBGNSS/LiDAR/Camera/IMU/SPAN-CPTDropbox, BaiduDynamic Objects, high-rising buildings

    1.8. Dataset 7: CAGoldenBridge20190828191451

    Brief: Dataset CAGoldenBridge20190828191451 is collected near Golden Bridge of San Francisco.

    Some key features are as follows:

    Date of CollectionTotal SizeSensorsDownloadFeatures
    2019/08/2840.1 GBGNSS/LiDAR/Camera/IMU/SPAN-CPTDropbox, BaiduDynamic Objects, high-speed dataset

    2. Hong Kong Dataset

    2.1 Sensor Setups

    The platform for data collection in Hong Kong is a Honda Fit. The platform is equipped with the following sensors:

    • 3D LiDAR snesor (HDL 32E Velodyne): (360 HFOV, +10~-30 VFOV, 80m range, 10Hz)
    • IMU (Xsens Mti 10, 100 Hz, AHRS)
    • GNSS receiver: u-blox M8T or u-blox F9P (to be updated)
    • camera:(1920X1200,79.4°X96.8°, 10Hz)
    • SPAN-CPT:(RTK GNSS/INS,RMSE: 5cm, 1Hz)

    Intrinsic and Extrinsic Parameters, ROSBAG Information

    The coordinates transformation between multiple sensors, and intrinsic measurements of camera can be found via Extrinsic Parameters and Intrinsic Parameters of Camera. The fish-eye camera intrinsic parameters can be found through here.

    • ROSBAG file which includes:
      • GNSS positioning (solution directly from GNSS receiver): /ublox_node/fix
        • 3D LiDAR point clouds: /velodyne_points
        • Camera: /camera/image_color
        • IMU: /imu/data
        • SPAN-CPT: /novatel_data/inspvax Note that majority Hong Kong data is provided in ROS2 format.

    2.2. Dataset 1: HK-Data20190426-2

    Brief: Dataset HK-Data20190426-2 is collected near Whampooa of Hong Kong.

    Some key features are as follows:

    Date of CollectionTotal SizeSensorsDownloadFeatures
    2019/04/2641.6 GBGNSS/LiDAR/Fish-eye Camera/IMU/SPAN-CPTDropbox, BaiduDynamic Objects, Tall buildings

    2.3. Dataset 2: HK-Data20190426-1

    Brief: Dataset HK-Data20190426-1 is collected near Ma Tau Kok of Hong Kong.

    Some key features are as follows:

    Date of CollectionTotal SizeSensorsDownloadFeatures
    2019/04/2624.0 GBGNSS/LiDAR/Fish-eye Camera/IMU/SPAN-CPTDropbox, BaiduPoor GNSS visibilities, Very Tall buildings

    2.4. Dataset 3: HK-Data20190316-2

    Brief: Dataset HK-Data20190316-2 is collected near Ma Tau Kok of Hong Kong.

    Some key features are as follows:

    Date of CollectionTotal SizeSensorsDownloadFeatures
    2019/03/1662.3 GBGNSS/LiDAR/Fish-eye Camera/IMU/SPAN-CPTDropbox, BaiduPoor GNSS visibilities, Very Tall buildings

    2.5. Dataset 4: HK-Data20190316-1

    Brief: Dataset HK-Data20190316-1 is collected near Ma Tau Kok of Hong Kong.

    Some key features are as follows:

    Date of CollectionTotal SizeSensorsDownloadFeatures
    2019/03/1627.9 GBGNSS/LiDAR/Fish-eye Camera/IMU/SPAN-CPTDropbox, BaiduPoor GNSS visibilities, Very Tall buildings

    2.6. Dataset 5: HK-Data20190117

    Brief: Dataset HK-Data20190117 is collected near Ma Tau Kok of Hong Kong.

    Some key features are as follows:

    Date of CollectionTotal SizeSensorsDownloadFeatures
    2019/03/166.11 GBGNSS/LiDAR/Camera/IMU/SPAN-CPTDropbox, Baidudecent GNSS visibilities, sub-urban

    3. Easy Use Scripts

    3.1 Extract ground truth and u-blox solution to .kml file

    • Build
    cd ~/catkin_ws/src
    git clone https://github.com/weisongwen/UrbanLoco
    cd ../
    catkin_make
    source ~/catkin_ws/devel/setup.bash
    
    • Usage
      • Install additional library
        sudo pip install pykml
        
      • spancpt2kml.py
        • run and save the trajectory of span-cpt to .kml file
          python spancpt2kml.py
          
      • ublox2kml.py
        • run and save the trajectory of u-blox to .kml file
          python ublox2kml.py
          

    3.2 Extract the raw GNSS measurements from /ublox_node/... to RINEX file

    Some researchers may want to apply the RTKLIB to process the GNSS data using the RTKLIB which is mainly used in the GNSS field, we recommend to use one piece of code from ublox2rinex and issue.

    3. Acknowledgements

    The authors from Berkeley hereby thank the generous support of Robosense, whose donation of a Robosense R32 LIDAR is a critical step in our data acquisition process. We also thank Di Wang for his contributions on vehicle instrumentation at UC Berkeley.

    4. License

    This work is licensed under a Creative Commons Attribution-NonCommercial-ShareAlike 4.0 International License and is provided for non-commercial but academic use. If you are interested in using this dataset for commercial purposes, please contact us.