Asian Journal of Control · 2015 · 12 citations · 30 references
Robotic SystemsEngineeringLocation EstimationField RoboticsMulti-view GeometryLocalizationUncertainty QuantificationRobot LearningKinematicsComputational GeometryRobotics PerceptionUncertain LocalizationCartographyMachine VisionRobot PerceptionVehicle LocalizationComputer VisionBayesian WayOdometryRoboticsApproximate Bayesian Solution
Abstract This paper presents a fully Bayesian way to solve the simultaneous localization and spatial prediction problem using a Gaussian Markov random field (GMRF) model. The objective is to simultaneously localize robotic sensors and predict a spatial field of interest using sequentially collected noisy observations by robotic sensors. The set of observations consists of the observed noisy positions of robotic sensing vehicles and noisy measurements of a spatial field. To be flexible, the spatial field of interest is modeled by a GMRF with uncertain hyperparameters. We derive an approximate Bayesian solution to the problem of computing the predictive inferences of the GMRF and the localization, taking into account observations, uncertain hyperparameters, measurement noise, kinematics of robotic sensors, and uncertain localization. The effectiveness of the proposed algorithm is illustrated by simulation results as well as by experiment results. The experiment results successfully show the flexibility and adaptability of our fully Bayesian approach in a data‐driven fashion.
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Finn Lindgren, Håvard Rue, Johan Lindström · Journal of the Royal Statistical Society Series B (Statistical Methodology) · 2011 · 2.6K citations · Full text
Collective Motion, Sensor Networks, and Ocean Sampling
Naomi Ehrich Leonard, Derek A. Paley, François Lekien et al. · Proceedings of the IEEE · 2007 · 939 citations · Full text