Publication detail

Dual Hysteresis Model of MR Dampers

GOLDASZ, J. SAPINSKI, B. JASTRZĘBSKI, Ł. KUBÍK, M.

Original Title

Dual Hysteresis Model of MR Dampers

Type

journal article in Web of Science

Language

English

Original Abstract

This study concerns the modeling of the hysteretic behavior of magnetorheological (MR) dampers. In general, hysteresis is one of key factors influencing the output of such actuators. So far, more attention has been paid to studying the combined hysteretic behavior of MR actuators by observing the relationships between the output (force/torque) and the inputs (current, velocity, and position). However, these devices feature two distinct hysteretic mechanisms: mechanical/hydraulic and magnetic. The mechanical hysteresis is of different nature than the magnetic hysteresis due to the properties of ferromagnetic materials forming the actuator's electromagnet circuit, and these should be split in the modeling process. In the present study, we separate the magnetic hysteresis from the mechanical/hydraulic one by investigating the magnetic flux vs. exciting current relationship of a commercial flow-mode MR damper subjected to sinusoidal current loading and independently of the mechanical excitations. The resulting behavior of the electromagnetic circuit is then examined using the non-linear inductor approach with hysteresis. Total hysteresis is then modeled using a non-linear inductor model in combination with a phenomenological parametric Maxwell type model of the damper.

Keywords

MR damper, Hysteretic behaviour, Magnetic hystereis, inductor model, Hysteresis

Authors

GOLDASZ, J.; SAPINSKI, B.; JASTRZĘBSKI, Ł.; KUBÍK, M.

Released

24. 9. 2020

Publisher

Frontiers

ISBN

2296-8016

Periodical

Frontiers in Materials

Year of study

7

Number

1

State

Swiss Confederation

Pages from

1

Pages to

13

Pages count

13

URL

Full text in the Digital Library

BibTex

@article{BUT165383,
  author="Janusz {Goldasz} and Bogdan {Sapinski} and Łukasz {Jastrzębski} and Michal {Kubík}",
  title="Dual Hysteresis Model of MR Dampers",
  journal="Frontiers in Materials",
  year="2020",
  volume="7",
  number="1",
  pages="1--13",
  doi="10.3389/fmats.2020.00236",
  issn="2296-8016",
  url="https://www.frontiersin.org/articles/10.3389/fmats.2020.00236/full"
}