Real-time correlative scan matching
By Edwin Olson. IEEE International Conference on Robotics and Automation, 2009
395 citations recorded by the source corpus.
Subfields: Aerospace Engineering, Computer Vision and Pattern Recognition
View Paper: https://www.semanticscholar.org/paper/f07e40a14e4f7e6d32bbaad32fe47cf61713e637
How researchers see this paper
The researchers whose trusted networks rank it highest, strongest advocate first. Every researcher gets a different order.
In Aerospace Engineering
- Abraham Bachrach
- Wolfram Burgard
- Cyrill Stachniss
- Giorgio Grisetti
- Ayoung Kim
- Giseop Kim
- Ryan W. Wolcott
- Kurt Konolige
In Computer Vision and Pattern Recognition
- Wolfram Burgard
- Giorgio Grisetti
- Abraham Bachrach
- Cyrill Stachniss
- Kurt Konolige
- Ayoung Kim
- Giseop Kim
- Sunwook Choi
Citations in the corpus
- Scan Context++: Structural Place Recognition Robust to Rotation and Lateral Variations in Urban Environments (2021, methodology): “Olson proposed correlative scan matching-based loop closure detection for 2D LiDAR [20, 21].”
- Autonomous flight in unstructured and unknown indoor environments (2009, methodology): “Edwin Olson for providing us with a reference implementation of his scan-matcher.”
- Robust and Precise Vehicle Localization Based on Multi-Sensor Fusion in Diverse City Scenes (2017, background): “and [21] make exhaustive searching over (x, y, h), which causes the computational complexity of O(n(3)).”
- Robust localization using 3D NDT scan matching with experimentally determined uncertainty and road marker matching (2017, neutral): “distribution of the scan matching result [17].”
- Fast LIDAR localization using multiresolution Gaussian mixture maps (2015, methodology): “We employ techniques presented by Olson [22] to formulate the multiresolution search as a branch-and-bound problem that can guarantee global optimality over our search space.”
- Research Advances and Challenges of Autonomous and Connected Ground Vehicles (2019, methodology): “The scan matching can merge the scan data from range sensors by some transformation methods, like iterative closest point (ICP) [517], Hough transform [518], adaptive random walk [519], histogram approaches [520] and correlative scan matching (CSM) [521].”
- SLAM-Aided Stem Mapping for Forest Inventory with Small-Footprint Mobile LiDAR (2015, background): “, classical Iterative Closest Point (ICP) [23], Iterative Closest Line (ICL) [24], Monte Carlo [25], and Maximum Likelihood Estimation (MLE) [26,27].”
- A flexible and scalable SLAM system with full 3D motion estimation (2011, methodology): “The real-time correlative scan matching approach [13] uses an exhaustive sampling based approach for scan matching.”
- Visual localization within LIDAR maps for automated urban driving (2014, methodology): “The measurement zk is exactly the output of our image registration in (10) and Rk is estimated by fitting a covariance to the explored cost surface, as is done in [23].”
- A Tutorial on Graph-Based SLAM (2010, methodology): “We use a variant of the scan-matcher described by Olson [26].”
- A Fully Autonomous Indoor Quadrotor (2012, methodology): “…(3) a Linux-based Gumstix embedded PC with USB interfaces and a WiFi network card that communicates with the microcontroller on the quadrotor via an RS-232 interface, (4) and a mirror that is used to deflect some of the laser beams along the z-direction to measure the distance to the ground.”
- Real-time loop closure in 2D LIDAR SLAM (2016, methodology): “The covariance matrices Σ ij can be evaluated, for example, following the approach in [15], or locally using the covariance estimation feature of Ceres [14] with (CS).”
- The three-dimensional normal-distributions transform : an efficient representation for registration, surface analysis, and loop detection (2009, methodology): “Olson [83] recently presented a 2D scan-matching method in the same vein.”
- Efficient Sparse Pose Adjustment for 2D mapping (2010, methodology): “More recently, the correlation method of Konolige and Chou [17], extended by Olson [22], provides an efficient method for finding the globally best match within a given range, while returning TABLE II”