2012
DOI: 10.1002/rob.21441
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Real time egomotion of a nonholonomic vehicle using LIDAR measurements

Abstract: This paper presents a technique to estimate in real time the egomotion of a vehicle based solely on laser range data. This technique calculates the discrepancy between closely spaced two‐dimensional laser scans due to the vehicle motion using scan matching techniques. The result of the scan alignment is converted into a nonlinear motion measurement and fed into a nonholonomic extended Kalman filter model. This model better approximates the real motion of the vehicle when compared to more simplistic models, thu… Show more

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Cited by 27 publications
(16 citation statements)
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“…Rather than using vision information to estimate model parameters, there has also been significant work in utilizing visual information directly for motion estimation and mapping (Botterill, Mills, & Green, ; Lambert, Furgale, Barfoot, & Enright, ; Marks, Howard, Bajracharya, Cottrell, & Matthies, ). Range sensors, specifically LIDAR systems, have also been used for motion estimation in the absence of direct position measurements such as GPS (Almeida and Santos, ).…”
Section: Introductionmentioning
confidence: 99%
“…Rather than using vision information to estimate model parameters, there has also been significant work in utilizing visual information directly for motion estimation and mapping (Botterill, Mills, & Green, ; Lambert, Furgale, Barfoot, & Enright, ; Marks, Howard, Bajracharya, Cottrell, & Matthies, ). Range sensors, specifically LIDAR systems, have also been used for motion estimation in the absence of direct position measurements such as GPS (Almeida and Santos, ).…”
Section: Introductionmentioning
confidence: 99%
“…The problem is to determine the translation vector t and the rotation matrix R that minimize the quadratic error reported in Equation (1).…”
Section: Preliminarymentioning
confidence: 99%
“…The authors use Bayes filters to estimate sensor measurement uncertainty and sensor validity to intelligently choose a subset of sensors that contribute to localization accuracy. As opposed to the later publications realized in the context of SLAM, we only consider the results of the ICP algorithm as a local pose measurement, similarly to Almeida and Santos (), who use the ICP algorithm to extract the steering angle and linear velocity of a carlike vehicle to update its nonholonomic model of motion. In our approach, the 3D reconstruction of the environment is considered locally coherent, and neither loop detection nor error propagation is used.…”
Section: Related Workmentioning
confidence: 99%
“…The second approach treats the ICP output as velocity in the R ‐frame (the velocity approach ). We consider it a state‐of‐the‐art practice utilized, for example, by Almeida and Santos (). The velocity is expressed in the N ‐frame first: boldvN, ICP =boldpN, ICP ,iboldpN, ICP ,i1t(i)t(i1),where t () is time corresponding to a time‐step i .…”
Section: Multimodal Data Fusionmentioning
confidence: 99%