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An INS and UWB Fusion-Based Gyroscope Drift Correction Approach for Indoor Pedestrian Tracking

Information fusion combining inertial navigation and radio frequency (RF) technologies, is commonly applied in indoor positioning systems (IPSs) to obtain more accurate tracking results. The performance of the inertial navigation system (INS) subsystem is affected by sensor drift over time and the R...

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Published in:Sensors (Basel, Switzerland) Switzerland), 2020-08, Vol.20 (16), p.4476
Main Authors: Tian, Qinglin, Wang, Kevin I-Kai, Salcic, Zoran
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Salcic, Zoran
description Information fusion combining inertial navigation and radio frequency (RF) technologies, is commonly applied in indoor positioning systems (IPSs) to obtain more accurate tracking results. The performance of the inertial navigation system (INS) subsystem is affected by sensor drift over time and the RF-based subsystem aims to correct the position estimate using a fusion filter. However, the inherent sensor drift is usually not corrected during fusion, which leads to increasingly erroneous estimates over a short period of time. Among the inertial sensor drifts, gyroscope drift has the most significant impact in determining the correct orientation and accurate tracking. A gyroscope drift correction approach is proposed in this study and is incorporated in an INS and ultra-wideband (UWB) fusion IPS where only distance measurements from UWB subsystem are used. The drift correction approach is based on turn detection to account for the fact that gyroscope drift is accumulated during a turn. Practical pedestrian tracking experiments are conducted to demonstrate the accuracy of the drift correction approach. With the gyroscope drift corrected, the fusion IPS is able to provide more accurate tracking performance and achieve up to 64.52% mean position error reduction when compared to the INS only tracking result.
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subjects Accelerometers
Accuracy
Algorithms
Data integration
Distance measurement
drift correction
Error reduction
Humans
Inertial navigation
inertial navigation system
information fusion
Movement
Navigation systems
pedestrian tracking
Pedestrians
Position errors
Position sensing
Radio frequency
Radio frequency identification
Radio Waves
Sensors
Subsystems
ultra-wideband
Ultrawideband
title An INS and UWB Fusion-Based Gyroscope Drift Correction Approach for Indoor Pedestrian Tracking
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