Hall-Sensor-Based Magnetic Force Modeling and Inverse Modeling for Hexapole Electromagnetic Actuation

This article presents the Hall-sensor-based magnetic force modeling and inverse modeling for the hexapole electromagnetic actuation. Whereas mathematical models are derived for a specific hexapole electromagnetic actuating system, the results can be applied to other multipole electromagnetic actuato...

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Published inIEEE/ASME transactions on mechatronics Vol. 27; no. 5; pp. 2806 - 2817
Main Authors Long, Fei, Meng, Ta-Min, Wang, Jiunn-Jyh, Menq, Chia-Hsiang
Format Journal Article
LanguageEnglish
Published New York IEEE 01.10.2022
The Institute of Electrical and Electronics Engineers, Inc. (IEEE)
Subjects
Active control
Actuation
Actuators
Electromagnetic actuation
Force
Hall effect
Hall effect sensor
hysteresis
Inverse problems
Magnetic fields
Magnetic flux
magnetic force modeling
Magnetic forces
Magnetic hysteresis
Magnetic poles
Magnetic resonance imaging
Mathematical analysis
Mathematical models
Model accuracy
Multipoles
Saturation magnetization
Solid modeling
Online AccessGet full text
ISSN1083-4435
1941-014X
DOI10.1109/TMECH.2021.3113273

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Abstract This article presents the Hall-sensor-based magnetic force modeling and inverse modeling for the hexapole electromagnetic actuation. Whereas mathematical models are derived for a specific hexapole electromagnetic actuating system, the results can be applied to other multipole electromagnetic actuators. Previously reported current-based force modeling and inverse modeling are subject to the combined hysteresis effect of multiple electromagnetic poles, resulting in significant error when being applied to produce magnetic force. To solve the challenge via direct measurement, Hall effect sensors are integrated into the hexapole system to measure the magnetic flux associated with individual magnetic poles. A Hall-sensor-based magnetic force model is then derived analytically, and the force gain and the associated voltage-flux gain matrix are determined via experimental calibration. The improved accuracy in force modeling is experimentally validated. Inverse modeling is then derived to render force production and to enable active control using the hexapole actuating system.
AbstractList This article presents the Hall-sensor-based magnetic force modeling and inverse modeling for the hexapole electromagnetic actuation. Whereas mathematical models are derived for a specific hexapole electromagnetic actuating system, the results can be applied to other multipole electromagnetic actuators. Previously reported current-based force modeling and inverse modeling are subject to the combined hysteresis effect of multiple electromagnetic poles, resulting in significant error when being applied to produce magnetic force. To solve the challenge via direct measurement, Hall effect sensors are integrated into the hexapole system to measure the magnetic flux associated with individual magnetic poles. A Hall-sensor-based magnetic force model is then derived analytically, and the force gain and the associated voltage-flux gain matrix are determined via experimental calibration. The improved accuracy in force modeling is experimentally validated. Inverse modeling is then derived to render force production and to enable active control using the hexapole actuating system.
Author Meng, Ta-Min
Wang, Jiunn-Jyh
Long, Fei
Menq, Chia-Hsiang
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Snippet This article presents the Hall-sensor-based magnetic force modeling and inverse modeling for the hexapole electromagnetic actuation. Whereas mathematical...
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SubjectTerms Active control
Actuation
Actuators
Electromagnetic actuation
Force
Hall effect
Hall effect sensor
hysteresis
Inverse problems
Magnetic fields
Magnetic flux
magnetic force modeling
Magnetic forces
Magnetic hysteresis
Magnetic poles
Magnetic resonance imaging
Mathematical analysis
Mathematical models
Model accuracy
Multipoles
Saturation magnetization
Solid modeling
Title Hall-Sensor-Based Magnetic Force Modeling and Inverse Modeling for Hexapole Electromagnetic Actuation
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