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Optimal Design of Bobbinless Rotary Magnetorheological Material Based Brake

Optimal Design of Bobbinless Rotary Magnetorheological Material Based Brake
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摘要 The paper presents a novel configuration in order to improve the compactness and manufacturing cost of magneto-rheological material(or fluid)based brakes(MRB in short).In conventional configurations of MRBs,the coil is normally wound on a nonmagnetic bobbin which is placed on the housing.This causes difficulties in manufacturing of the brake and the bottle-neck problem of magnetic circuit.In the proposed configuration,the coil is wound directly on the inner cylinder of the housing.In this case,the inner cylinder of the housing should be designed in a special shape that maximizes the magnetic flux across the MR fluid(MRF)duct.After proposing of the new configuration of the MRBs,the modeling of the MRBs is performed based on Bingham rheological model of the MRF.An optimal design of the proposed MRBs and conventional MRBs is then performed based on finite element analysis results of magnetic circuit of the MRBs.A comparative work between the optimal parameters of the proposed MRBs and conventional MRBs is conducted and the advanced performance characteristics of the proposed MRBs are investigated. The paper presents a novel configuration in order to improve the compactness and manufacturing cost of magneto-rheological material(or fluid)based brakes(MRB in short).In conventional configurations of MRBs,the coil is normally wound on a nonmagnetic bobbin which is placed on the housing.This causes difficulties in manufacturing of the brake and the bottle-neck problem of magnetic circuit.In the proposed configuration,the coil is wound directly on the inner cylinder of the housing.In this case,the inner cylinder of the housing should be designed in a special shape that maximizes the magnetic flux across the MR fluid(MRF)duct.After proposing of the new configuration of the MRBs,the modeling of the MRBs is performed based on Bingham rheological model of the MRF.An optimal design of the proposed MRBs and conventional MRBs is then performed based on finite element analysis results of magnetic circuit of the MRBs.A comparative work between the optimal parameters of the proposed MRBs and conventional MRBs is conducted and the advanced performance characteristics of the proposed MRBs are investigated.
出处 《Journal of Iron and Steel Research International》 SCIE EI CAS CSCD 2012年第S1期495-500,共6页
基金 Item Sponsored by National Research Foundation of Korea (NRF) Grant Funded by Korea Government (MEST) (No.2010-0015090)
关键词 magneto-rheological fluid magneto-rheological brake optimal design finite element method magneto-rheological fluid magneto-rheological brake optimal design finite element method
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参考文献7

  • 1Q H Nguyen,S B Choi.Selection of magnetorheological brake types via optimal design considering maximum torque and constrained volume[J].Smart Materials and Structures.2012(1)
  • 2Q H Nguyen,S B Choi.Optimal design of an automotive magnetorheological brake considering geometricdimensions and zero-field friction heat[J].Smart Materials and Structures.2010(11)
  • 3M Zubieta,S Eceolaza,M J Elejabarrieta,M M Bou-Ali.Magnetorheological fluids: characterization and modeling of magnetization[J].Smart Materials and Structures.2009(9)
  • 4MUHAMMAD Aslam.Review of magnetorheological (MR) fluids and its applications in vibration control[J].Journal of Marine Science and Application,2006,5(3):17-29. 被引量:11
  • 5J Wang,G Meng.Magnetorheological fluid devices: Principles, characteristics and applications in mechanical engineering[].Proceedings of the Institution of Mechanical Engineers Part L: Journal of Materials Design and Applications.2001
  • 6BRIAN E S.Research for Dynamic Seal Friction Modeling in Linear Motion Hydraulic Piston Applications[]..2005
  • 7NGUYEN Q H,Ct-IOI S B.Optimal Design of a Hybrid MR Brake for Haptic Wrist Application[].Proceedings SPIE.2011

二级参考文献66

  • 1[25]RABINOW J.The magnetic fluid clutch[J].AIEE Trans,1948(67):1308-1315.
  • 2[26]RABINOW J.Magnetic fluid clutch[J].National Bureau of Standards Technical News Bulletin,1948 (4):54-60.
  • 3[27]CHEN C W.Magnetism and metallurgy of soft magnetic materials[M].[s.l.]:Dover Publication,1986.
  • 4[28]JAPKA J E.Microstructure and properties of carbonyl iron powder[J].Journal of Metals,1988(7):18-21.
  • 5[29]JAPKA J E.Iron powderfor metal injection molding[J].The International Journal of Powder Metallurgy,1991,27(2):107-114.
  • 6[30]BOZORTH R M.Ferromagnetism[M].New York:IEEE Press,1978.
  • 7[31]CARLSON J D,WEISS K D.Magnetorheological materials based on alloy particles[R].USA:Lord Corporation,1995.
  • 8[32]PHULE P P,JATKAR A D,GINDER J M.Materials for smart systems[A].MRS Proceedings[C].[s.l.],1997.
  • 9[33]LEMAIRE E,BOSSIS G,GRASSELLI Y.Yield stress and structuration of magnetorheological suspensions[J].Journal of Magnetism and Magnetic Materials,1993(122):51-52.
  • 10[34]PHULE P P,GINDER J M.Synthesis and properties of novel magnetorheological fluids having improved stability and redispersibility[A].6th International Conference on ER Fluids and MR Suspensions and Their Applications[C].Yonezawa:World Scientific,1997.

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