Influence of Permanent Magnets Installation Approach on the Torque of а Magneto-Rheological Disk Brake

Abstract:

Magnetorheological braking devices function due to the organization of domain structures between liquid and solid magnetic materials under the action of an electromagnetic or magnetic field. The disc is most widely used as a rotating braking element that made of a solid magnetic material due to the large area of contact with a magnetorheological fluid. Many factors affect the braking characteristics of the magnetorheological disc brake. Specifically, the value of the magnetic field and how the field is distributed across the work element is significantly affected at the braking torque. There are different ways to generate a magnetic field. In this study, the method of installation of permanent magnets into the construction, allowing to increase the braking torque of the magnetorheological disc brake is proposed. Simulation modelling showing the distribution of the magnetic field across the disk depending on the installation of permanent magnets with different pole orientations were carried out. The model takes into account the possibility of increasing the gap between solid magnetic materials of the structure, inside them which the magnetorheological fluid is placed. Comparative estimation of the distribution of the magnetic fields depending on the chosen method of installation of permanent magnets with different orientations of their poles is carried out. Further research is planned to focus on a comparative assessment of the distribution of magnetic fields depending on the selected material of the braking chamber.

• Periodical: Advances in Science and Technology (Volume 105)
• Pages: 184-193
• DOI: https://doi.org/10.4028/www.scientific.net/AST.105.184
• Online since: April 2021
• Authors: Ilya Aleksandrovich Frolov*, Andrei Aleksandrovich Vorotnikov, Semyon Viktorovich Bushuev, Elena Alekseevna Melnichenko, Yuri Viktorovich Poduraev
• Keywords: Friction Characteristics, Magnetic Field, Magnetorheological Brake, Magnetorheological Fluids, Smart Material

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