A bagging tree-based pseudorange correction algorithm for global navigation satellite system positioning in foliage canyons

Global navigation satellite system is indispensable to provide positioning, navigation, and timing information for pedestrians and vehicles in location-based services. However, tree canopies, although considered as valuable city infrastructures in urban areas, adversely degrade the accuracy of globa...

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Published in:International Journal of Distributed Sensor Networks
Main Authors: Fan Qin, Linxia Fu, Yuanqing Wang, Yi Mao
Format: Article
Language:English
Published: Wiley 2021-05-01
Online Access:https://doi.org/10.1177/15501477211016757
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author Fan Qin
Linxia Fu
Yuanqing Wang
Yi Mao
author_facet Fan Qin
Linxia Fu
Yuanqing Wang
Yi Mao
author_sort Fan Qin
collection DOAJ
container_title International Journal of Distributed Sensor Networks
description Global navigation satellite system is indispensable to provide positioning, navigation, and timing information for pedestrians and vehicles in location-based services. However, tree canopies, although considered as valuable city infrastructures in urban areas, adversely degrade the accuracy of global navigation satellite system positioning as they attenuate the satellite signals. This article proposes a bagging tree-based global navigation satellite system pseudorange error prediction algorithm, by considering two variables, including carrier to noise C / N 0 and elevation angle θ e to improve the global navigation satellite system positioning accuracy in the foliage area. The positioning accuracy improvement is then obtained by applying the predicted pseudorange error corrections. The experimental results shows that as the stationary character of the geostationary orbit satellites, the improvement of the prediction accuracy of the BeiDou navigation satellite system solution (85.42% in light foliage and 83.99% in heavy foliage) is much higher than that of the global positioning system solution (70.77% in light foliage and 73.61% in heavy foliage). The positioning error values in east, north, and up coordinates are improved by the proposed algorithm, especially a significant decrease in up direction. Moreover, the improvement rate of the three-dimensional root mean square error of positioning accuracy in light foliage area test is 86% for BeiDou navigation satellite system/global positioning system combination solutions, while the corresponding improvement rate is 82% for the heavy foliage area test.
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spelling doaj-art-bcdcdc9c39bc45a9841d7baca8ef53d02025-08-20T02:18:51ZengWileyInternational Journal of Distributed Sensor Networks1550-14772021-05-011710.1177/15501477211016757A bagging tree-based pseudorange correction algorithm for global navigation satellite system positioning in foliage canyonsFan Qin0Linxia Fu1Yuanqing Wang2Yi Mao3College of Transportation Engineering, Chang’an University, Xi’an, ChinaCollege of Civil Aviation, Nanjing University of Aeronautics and Astronautics, Nanjing, ChinaCollege of Transportation Engineering, Chang’an University, Xi’an, ChinaCollege of Civil Aviation, Nanjing University of Aeronautics and Astronautics, Nanjing, ChinaGlobal navigation satellite system is indispensable to provide positioning, navigation, and timing information for pedestrians and vehicles in location-based services. However, tree canopies, although considered as valuable city infrastructures in urban areas, adversely degrade the accuracy of global navigation satellite system positioning as they attenuate the satellite signals. This article proposes a bagging tree-based global navigation satellite system pseudorange error prediction algorithm, by considering two variables, including carrier to noise C / N 0 and elevation angle θ e to improve the global navigation satellite system positioning accuracy in the foliage area. The positioning accuracy improvement is then obtained by applying the predicted pseudorange error corrections. The experimental results shows that as the stationary character of the geostationary orbit satellites, the improvement of the prediction accuracy of the BeiDou navigation satellite system solution (85.42% in light foliage and 83.99% in heavy foliage) is much higher than that of the global positioning system solution (70.77% in light foliage and 73.61% in heavy foliage). The positioning error values in east, north, and up coordinates are improved by the proposed algorithm, especially a significant decrease in up direction. Moreover, the improvement rate of the three-dimensional root mean square error of positioning accuracy in light foliage area test is 86% for BeiDou navigation satellite system/global positioning system combination solutions, while the corresponding improvement rate is 82% for the heavy foliage area test.https://doi.org/10.1177/15501477211016757
spellingShingle Fan Qin
Linxia Fu
Yuanqing Wang
Yi Mao
A bagging tree-based pseudorange correction algorithm for global navigation satellite system positioning in foliage canyons
title A bagging tree-based pseudorange correction algorithm for global navigation satellite system positioning in foliage canyons
title_full A bagging tree-based pseudorange correction algorithm for global navigation satellite system positioning in foliage canyons
title_fullStr A bagging tree-based pseudorange correction algorithm for global navigation satellite system positioning in foliage canyons
title_full_unstemmed A bagging tree-based pseudorange correction algorithm for global navigation satellite system positioning in foliage canyons
title_short A bagging tree-based pseudorange correction algorithm for global navigation satellite system positioning in foliage canyons
title_sort bagging tree based pseudorange correction algorithm for global navigation satellite system positioning in foliage canyons
url https://doi.org/10.1177/15501477211016757
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