Attitude Determination Using a MEMS-Based Flight Information Measurement Unit

Obtaining precise attitude information is essential for aircraft navigation and control. This paper presents the results of the attitude determination using an in-house designed low-cost MEMS-based flight information measurement unit. This study proposes a quaternion-based extended Kalman filter to...

Full description

Bibliographic Details
Main Authors: Yu-Heng Lin, I.-Chiang Wang, Der-Ming Ma, Jaw-Kuen Shiau
Format: Article
Language:English
Published: MDPI AG 2011-12-01
Series:Sensors
Subjects:
Online Access:http://www.mdpi.com/1424-8220/12/1/1/
_version_ 1797999622354894848
author Yu-Heng Lin
I.-Chiang Wang
Der-Ming Ma
Jaw-Kuen Shiau
author_facet Yu-Heng Lin
I.-Chiang Wang
Der-Ming Ma
Jaw-Kuen Shiau
author_sort Yu-Heng Lin
collection DOAJ
description Obtaining precise attitude information is essential for aircraft navigation and control. This paper presents the results of the attitude determination using an in-house designed low-cost MEMS-based flight information measurement unit. This study proposes a quaternion-based extended Kalman filter to integrate the traditional quaternion and gravitational force decomposition methods for attitude determination algorithm. The proposed extended Kalman filter utilizes the evolution of the four elements in the quaternion method for attitude determination as the dynamic model, with the four elements as the states of the filter. The attitude angles obtained from the gravity computations and from the electronic magnetic sensors are regarded as the measurement of the filter. The immeasurable gravity accelerations are deduced from the outputs of the three axes accelerometers, the relative accelerations, and the accelerations due to body rotation. The constraint of the four elements of the quaternion method is treated as a perfect measurement and is integrated into the filter computation. Approximations of the time-varying noise variances of the measured signals are discussed and presented with details through Taylor series expansions. The algorithm is intuitive, easy to implement, and reliable for long-term high dynamic maneuvers. Moreover, a set of flight test data is utilized to demonstrate the success and practicality of the proposed algorithm and the filter design.
first_indexed 2024-04-11T11:06:33Z
format Article
id doaj.art-9796971ed6e248c08a6bcd31e16d7a3c
institution Directory Open Access Journal
issn 1424-8220
language English
last_indexed 2024-04-11T11:06:33Z
publishDate 2011-12-01
publisher MDPI AG
record_format Article
series Sensors
spelling doaj.art-9796971ed6e248c08a6bcd31e16d7a3c2022-12-22T04:28:16ZengMDPI AGSensors1424-82202011-12-0112112310.3390/s120100001Attitude Determination Using a MEMS-Based Flight Information Measurement UnitYu-Heng LinI.-Chiang WangDer-Ming MaJaw-Kuen ShiauObtaining precise attitude information is essential for aircraft navigation and control. This paper presents the results of the attitude determination using an in-house designed low-cost MEMS-based flight information measurement unit. This study proposes a quaternion-based extended Kalman filter to integrate the traditional quaternion and gravitational force decomposition methods for attitude determination algorithm. The proposed extended Kalman filter utilizes the evolution of the four elements in the quaternion method for attitude determination as the dynamic model, with the four elements as the states of the filter. The attitude angles obtained from the gravity computations and from the electronic magnetic sensors are regarded as the measurement of the filter. The immeasurable gravity accelerations are deduced from the outputs of the three axes accelerometers, the relative accelerations, and the accelerations due to body rotation. The constraint of the four elements of the quaternion method is treated as a perfect measurement and is integrated into the filter computation. Approximations of the time-varying noise variances of the measured signals are discussed and presented with details through Taylor series expansions. The algorithm is intuitive, easy to implement, and reliable for long-term high dynamic maneuvers. Moreover, a set of flight test data is utilized to demonstrate the success and practicality of the proposed algorithm and the filter design.http://www.mdpi.com/1424-8220/12/1/1/attitude determinationquaternionflight information measurement unitextended Kalman filter
spellingShingle Yu-Heng Lin
I.-Chiang Wang
Der-Ming Ma
Jaw-Kuen Shiau
Attitude Determination Using a MEMS-Based Flight Information Measurement Unit
Sensors
attitude determination
quaternion
flight information measurement unit
extended Kalman filter
title Attitude Determination Using a MEMS-Based Flight Information Measurement Unit
title_full Attitude Determination Using a MEMS-Based Flight Information Measurement Unit
title_fullStr Attitude Determination Using a MEMS-Based Flight Information Measurement Unit
title_full_unstemmed Attitude Determination Using a MEMS-Based Flight Information Measurement Unit
title_short Attitude Determination Using a MEMS-Based Flight Information Measurement Unit
title_sort attitude determination using a mems based flight information measurement unit
topic attitude determination
quaternion
flight information measurement unit
extended Kalman filter
url http://www.mdpi.com/1424-8220/12/1/1/
work_keys_str_mv AT yuhenglin attitudedeterminationusingamemsbasedflightinformationmeasurementunit
AT ichiangwang attitudedeterminationusingamemsbasedflightinformationmeasurementunit
AT dermingma attitudedeterminationusingamemsbasedflightinformationmeasurementunit
AT jawkuenshiau attitudedeterminationusingamemsbasedflightinformationmeasurementunit