Publication detail
Multiphysics Model of an MR Damper including Magnetic Hysteresis
KUBÍK, M. GOLDASZ, J.
English title
Multiphysics Model of an MR Damper including Magnetic Hysteresis
Type
journal article in Web of Science
Language
en
Original abstract
Hysteresis is one of key factors influencing the output of magnetorheological (MR) actuators. The actuators reveal two primary sources of hysteresis. The hydro(mechanical) hysteresis can be related to flow dynamics mechanisms and is frequency- or rate-dependent. For comparison, the magnetic hysteresis is an inherent property of ferromagnetic materials forming the magnetic circuit of the actuators. The need for a good quality hysteresis model has been early recognized in studies on MR actuators; however, few studies have provided models which could be used in the design stage. In the paper we reveal a hybrid multiphysics model of a flow-mode MR actuator which could be used for that purpose. The model relies on the information which can be extracted primarily from material datasheets and engineering drawings. We reveal key details of the model and then verify it against measured data. Finally, we employ it in a parameter sensitivity study to examine the influence of magnetic hysteresis and other relevant factors on the output of the actuator.
English abstract
Hysteresis is one of key factors influencing the output of magnetorheological (MR) actuators. The actuators reveal two primary sources of hysteresis. The hydro(mechanical) hysteresis can be related to flow dynamics mechanisms and is frequency- or rate-dependent. For comparison, the magnetic hysteresis is an inherent property of ferromagnetic materials forming the magnetic circuit of the actuators. The need for a good quality hysteresis model has been early recognized in studies on MR actuators; however, few studies have provided models which could be used in the design stage. In the paper we reveal a hybrid multiphysics model of a flow-mode MR actuator which could be used for that purpose. The model relies on the information which can be extracted primarily from material datasheets and engineering drawings. We reveal key details of the model and then verify it against measured data. Finally, we employ it in a parameter sensitivity study to examine the influence of magnetic hysteresis and other relevant factors on the output of the actuator.
Keywords in English
hysteresis, magnetic hysteresis, modelling, magnetorheological damper
Released
26.06.2019
Publisher
Hindawi
ISSN
1875-9203
Volume
2019
Number
1
Pages from–to
1–20
Pages count
20
BIBTEX
@article{BUT157473,
author="Michal {Kubík} and Janusz {Goldasz},
title="Multiphysics Model of an MR Damper including Magnetic Hysteresis",
year="2019",
volume="2019",
number="1",
month="June",
pages="1--20",
publisher="Hindawi",
issn="1875-9203"
}