Flow of the Magnetorheological Fluid in Disc-Type Clutch

Jin Huang; Yan Yang; Yue Huang

doi:10.4028/www.scientific.net/AMR.740.709

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HomeAdvanced Materials ResearchAdvanced Materials Research Vol. 740Flow of the Magnetorheological Fluid in Disc-Type...

Flow of the Magnetorheological Fluid in Disc-Type Clutch

Abstract:

Herschel-Bulkley model is used to describe the constitutive behavior of Magnetorheological (MR) fluids subject to an applied magnetic field. Based on the shear flow equation at the narrow gap, a theoretical analysis of the effect of the applied magnetic field on the viscoplastic flow between two parallel disks is presented. The expression for the velocity in viscoplastic flow is derived. The results indicate that the velocity profile of MR fluid in shear region is deeply dependent on the gradient of the pressure in the flow channel. For the negative pressure gradient value, the velocity peak value point tends to move toward the driven disc wall as absolute value of pressure gradient increases. However, the velocity peak value point tends to move toward the driving disc wall as absolute value of pressure gradient increases for the positive pressure gradient value.

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Periodical:

Advanced Materials Research (Volume 740)

Pages:

709-714

DOI:

https://doi.org/10.4028/www.scientific.net/AMR.740.709

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Online since:

August 2013

Authors:

Jin Huang, Yan Yang, Yue Huang

Keywords:

Disc-Type Clutch, Magnetorheological Fluid, Viscoplastic Flow

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References

[1] Carlson,J. D: Journal of Intelligent Material Systems and Structures Vol. 13(2002), pp.431-435.

Google Scholar

[2] H. Laalej, et al.: Journal of Intelligent Material Systems and Structures Vol. 21(2010), pp.483-501.

Google Scholar

[3] Wu WJ, Cai CS: Structural Engineering and Mechanics Vol. 34(2010), pp.611-623.

Google Scholar

[4] Arjon Turnip, Seonghun Park, Keum-Shik Hong: International Journal of Precision Engineering and Manufacturing Vol. 11(2010), pp.209-218.

Google Scholar

[5] Xue Xiaomin, Sun Qing, Zhang Ling, et al: Journal of Intelligent Material Systems and Structures Vol. 20 (2009), pp.2089-2100.

Google Scholar

[6] J. Huang, J.M. He and J.Q. Zhang: Key Engineering materials, Vol. 274-276(2004), pp.969-974.

Google Scholar

[7] D H Wang, H X Ai, W H Liao: Smart Materials and Structures Vol. 18 (2009), pp.63-69.

Google Scholar

[8] A.M. Afonso, M.A. Alves, F.T. Pinho: Journal of Non-Newtonian Fluid Mechanics Vol. 159 (2009), pp.50-63.

Google Scholar

[9] Tsuyoshi Saito, Hiroyasu Ikeda: Journal of Intelligent Material Systems and Structures Vol. 18(2007), pp.1181-1185.

Google Scholar

[10] Kerem Karakoc, Edward J. Park , Afzal Suleman: Mechatronics Vol. 18 (2008), pp.434-447.

Google Scholar

[11] A.G. Olabi, A. Grunwald: Materials and Design Vol. 28 (2007), pp.2658-2664.

Google Scholar

[12] J. Huang, J.Q. Zhang, Y. Yang, Y. Q. Wei: Journal of Materials Processing Technology Vol. 129 (2002), pp.559-562.

Google Scholar

[13] W.H. Herschel, R. Bulkley, Konsistenzmessungen von Gummi-Benzol-Losungen, Kolloid-Z. 39 (1926) 291-300.

DOI: 10.1007/bf01432034

Google Scholar

[14] MRF-132DG on http: /www. lord. com.

Google Scholar