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Magnetic Field-Dependent Reversal Effect of the Electromagnet- Induced Normal Stress of Magnetorheological Materials

Taixiang Liu, Yangguang Xu, Ke Yang, Lianghong Yan, Beicong Huang, Zhuo Zhang, Xiaodong Jiang, Hongwei Yan

Abstract


Magnetorheological (MR) materials are a type of magnetoactive smart materials, whose physical or mechanical properties can be altered by applying a magnetic field. In usual, MR materials can be prepared by mixing magnetic particles into non-magnetic matrices. In this work, the electromagnet-induced (or non-uniform magnetic field-induced) normal stress of MR materials is studied. It shows that the stress does not vary monotonically along with the enhancement of the applied magnetic field. There exists a field-dependent reversal effect of the variation of the stress. The reversal effect is thought resulting from that the ratio of interparticle repellent of parallel magnetic particles to the particle-electromagnet attraction gets enlarged along with the enhancement of the field.

Keywords


Magnetorheological Material; Magnetorheological Finishing; Electromagn

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DOI: http://dx.doi.org/10.18282/mpc.v1i4.844

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