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Influencing Factors for Magnetic Circuit Environment of the Magnetorheological Fluid Dynamometer

Published: 20 September 2019 Publication History
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  • Abstract

    The magnetic circuit environment is the most important factor restricting the normal operation of the magnetorheological fluid (MRF) device. A good magnetic circuit environment can make the MRF dynamometer more economical and practical. In this paper, a new MRF dynamometer is used as the research object. The magnetic field simulation is carried out by Ansoft Maxwell software to study the influence of magnetic isolation ring, magnetic permeability material, Working gap and Excitation current on the magnetic field performance of MRF dynamometer. The research shows that the magnetic induction line distribution in the working gap of the MRF dynamometer is relatively uniform, the magnetic induction intensity is in the range of 120-162 mT, For materials with higher permeability, the stronger the magnetic induction intensity in the working gap is. This research has certain guiding significance for the magnetic circuit optimization of MRF dynamometer.

    References

    [1]
    Shamieh H, Sedaghati R (2018). Development, optimization, and control of a novel magnetorheological brake with no zero-field viscous torque for automotive applications. Journal of Intelligent Material Systems and Structures, 29 (16), 3199--3213.
    [2]
    Cesmeci S, Gordaninejad F, Ryan KL, Eltahawy W (2018). A liquid spring--magnetorheological damper system under combined axial and shear loading for three-dimensional seismic isolation of structures. Journal of Intelligent Material Systems and Structures, 29 (18), 3517--3532.
    [3]
    Wang D, Zi B, Zeng Y, Qian S, Qian J (2017). Simulation and experiment on transient temperature field of a magnetorheological clutch for vehicle application. Smart Materials and Structures, 26 (9), 095020.
    [4]
    Shamieh H, Sedaghati R (2017). Multi-objective design optimization and control of magnetorheological fluid brakes for automotive applications. Smart Materials and Structures, 26 (12), 125012.
    [5]
    Arsava KS, Kim Y, Kim KH, Shin B-S (2015). Smart fuzzy control of reinforced concrete structures excited by collision-type forces. Expert Systems with Applications, 42 (21), 7929--7941.
    [6]
    Arsava KS, Kim Y, Kim KH (2016). Fuzzy control for impact mitigation of coastal infrastructure equipped with magnetorheological dampers. Journal of Coastal Research, 75 (sp1), 1037--1042.
    [7]
    Chae HD, Choi S-B (2014). A new vibration isolation bed stage with magnetorheological dampers for ambulance vehicles. Smart Materials and Structures, 24 (1), 017001.
    [8]
    Fu Q, Wang D-H, Xu L, Yuan G (2017). A magnetorheological damper-based prosthetic knee (MRPK) and sliding mode tracking control method for an MRPK-based lower limb prosthesis. Smart Materials and Structures, 26 (4), 045030.
    [9]
    Choi S-H, Kim S, Kim P, Park J, Choi S-B (2015). A new visual feedback-based magnetorheological haptic master for robot-assisted minimally invasive surgery. Smart Materials and Structures, 24 (6), 065015.
    [10]
    Dyke S, Spencer Jr B, Sain M, Carlson J (1996). Experimental verification of semi-active structural control strategies using acceleration feedback. In: Proc. of the 3rd Intl. Conf. on Motion and Vibr. Control, 291--296
    [11]
    Yan, Y., Ji wen Z., Jin, H (2003). The influence of the irregularity of magnetic field to the shear stress of MRF. Modern Manufacturing Engineering, (2):2
    [12]
    Seok J, Kim Y-J, Jang K-I, Min B-K, Lee SJ (2007). A study on the fabrication of curved surfaces using magnetorheological fluid finishing. International Journal of Machine Tools and Manufacture, 47 (14), 2077--2090.
    [13]
    Ling Z, Yi nong L, Yong, H., Xu, T (2008). Electromagnetic design and optimization of magneto-rheological dampers. Journal of Vibration Engineering, 21 (2), 173--178.
    [14]
    Kikuchi T, Ikeda K, Otsuki K, Kakehashi T, Furusho J (2009).Compact MR fluid clutch device for human-friendly actuator. In: Journal of Physics: Conference Series, vol 1. IOP Publishing, p 012059.
    [15]
    Yu fei W, Lihong S, Lin H (2010) Investigation on Electromagnetic Coils of Multistage Piston-type MR Damper. Noise and Vibration Control, 30 (2), 142--145.
    [16]
    Gedik E, Kurt H, Recebli Z, Balan C (2012). Two-dimensional CFD simulation of magnetorheological fluid between two fixed parallel plates applied external magnetic field. Computers & fluids, 63, 128--134.
    [17]
    Zhen Q, Jin H (2016). Finite Element Analysis of Magnetic Saturation of Disktype Magnetorheological Brake. Journal of Mechanical Transmission, 40 (5), 139--144.

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    1. Influencing Factors for Magnetic Circuit Environment of the Magnetorheological Fluid Dynamometer

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      cover image ACM Other conferences
      RICAI '19: Proceedings of the 2019 International Conference on Robotics, Intelligent Control and Artificial Intelligence
      September 2019
      803 pages
      ISBN:9781450372985
      DOI:10.1145/3366194
      Permission to make digital or hard copies of all or part of this work for personal or classroom use is granted without fee provided that copies are not made or distributed for profit or commercial advantage and that copies bear this notice and the full citation on the first page. Copyrights for components of this work owned by others than ACM must be honored. Abstracting with credit is permitted. To copy otherwise, or republish, to post on servers or to redistribute to lists, requires prior specific permission and/or a fee. Request permissions from [email protected]

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      New York, NY, United States

      Publication History

      Published: 20 September 2019

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      Author Tags

      1. Dynamometer
      2. Finite element
      3. Magnetic circuit analysis
      4. Magnetorheological fluid

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      RICAI '19 Paper Acceptance Rate 140 of 294 submissions, 48%;
      Overall Acceptance Rate 140 of 294 submissions, 48%

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