Magnetorheological flow, shear and squeeze mode vibration dampers

• Autorzy: Sapiński B.
• Konferencja: Dynamika Konstrukcji / Sympozjum (XII ; 28-30 września 2005 ; Rzeszów-Bystre, Polska)
• Języki publikacji: EN

Abstrakty

EN

The study is concerned with the development of magnetorheological (MR) flow, shear and squeeze mode vibration dampers (MR dampers), which has been a part of author's research program for two years. The composition and operating mechanism of MR fluids with an emphasis on modes used to construct MR vibration dampers are of the particular interest. Structures of MR flow and shear mode dampers, and selected results of their experimental tests are presented. Further research work focused on engineering of MR squeeze mode damper is announced.

Słowa kluczowe

EN

vibration damper; magnetorheological fluid; flow; shear; squeeze mode

PL

tłumik drgań; ciecz magnetoreologiczna; przepływ; ścinanie

• Wydawca: Oficyna Wydawnicza Politechniki Rzeszowskiej
• Czasopismo: Zeszyty Naukowe Politechniki Rzeszowskiej. Mechanika
• Rocznik: 2005
• Tom: z. 65 [222]
• Strony: 327--334
• Opis fizyczny: Bibliogr. 16 poz., rys., wykr.

Twórcy

autor

Sapiński B.

• Department of Process Control, AGH-University of Science and Technology, Cracow, Poland

Bibliografia

• 1. JOLLY M. R., MUNOZ B. C., CARLSON D. J ., 1996, A model of the Behavoiur of Magnetorheological Material, Smart Materials and Structures, 607-614.
• 2. JOLLY M. R., CARLSON D. J., 1996, Controllable Squeeze Film Damping Using Magnetorheological Fluid, Proc. of Int. Conf on New Actuators, Germany.
• 3. JOLLY M. R., BENDER J. W. M., CARLSON D. J ., 1998, Properties and Application of Commercial Magnetorheological Fluids, Proc. of SPIE Symp. on Smart Materials and Structures, USA.
• 4. RABINOW J ., 1948, The magnetic fluid clutch, AlEE Trans. 67, 13081315.
• 5. RABINOW J ., 1948, Magnetic fluid clutch, National Bureau of Standards Technical News Bulletin, 32(4), 54-60.
• 6. SAPIŃSKI B., 2003, Dynamic Characteristics of an Experimental MR fluid damper, Engineering Transactions, 51, 399-418.
• 7. SAPIŃSKI B., 2004, Linear Magnetorheological Fluid Dampers for Vibration Mitigation: Modelling, Control and Experimental Testing, Dissertations, Monographs AGH, 128.
• 8. SAPIŃSKI B., BYDON S., 2005, Magnetorhelogical rotary brake: analysis, design considerations and experimental evaluation, (to be published).
• 9. SHEARER J. L., MURPHY A. T., RlCHARDSON H. H., 1967, Introduction to System Dynamics, Addison-Wesley, Reading, MA.
• 10. SIMS N. D., STANWAY R., JOHNSON A. R., MELLOR P., 2001, Design, testing and model validation of an MR squeeze-flow vibration damper, Smart Structures and Materials, 111-120.
• 11. STANWAY R., SIMS N. D., JOHNSON A. R., MELLOR P., 2000, Modelling and control of an MR vibration isolator, Proc. SPIE Symp. on Smart Materials and Structures, USA.
• 12. WlNSLOW W., 1949, Induced Fibration of Suspensions, Journal of Applied Physics, 20, 1137-1140
• 13. LORD CORPORATION, 2003, http://www.rheonetic.com. .
• 14. US PATE NT 2,417850, 1947, Methods and Means for Translating Electrical impulses into Mechanical Forces.
• 15. US PATENT 5,842,547, 1998, Controllable Brake.
• 16. US PATENT, 5,277,281, 1999, Magnetorheological Fluid Dampers.