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Condition-Based Monitoring of Wheel-Rail Interface Using a Novel Multibody Twin Disk Rig Model

Pislaru, Crinela and Sambo, Bello (2014) Condition-Based Monitoring of Wheel-Rail Interface Using a Novel Multibody Twin Disk Rig Model. In: 6th IET Conference on Railway Condition Monitoring. RCM 2014 . IET, Birmingham, UK, 4.2.3.. ISBN 978-1-84919-913-1

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This paper describes the development of a comprehensive multibody model of the twin disk test rig using the modular approach. The mathematical models for electrical and
mechanical components and wheel and rail rollers are implemented using SimPowerSystems, SimDriveline and Simulink toolboxes. The static and dynamic responses of the rollers are measured with load cells and strain gauges. The
experimental data show that the creep forces saturate in the low and very low adhesion conditions at the points where the
creepages are large enough to give saturation. Also the lateral position and yaw angle are sufficient to capture the key
stability and guidance aspects of the vehicle system dynamics. There is a close correlation between the simulated and measured lateral creep forces so the proposed multibody
model is validated. The model represents an important contribution to railway condition monitoring techniques and predictive maintenance methods because it can be easily employed in hardware-in-the-loop applications allowing accurate estimation of forces acting on the wheel-rail interface.

Item Type: Book Chapter
Uncontrolled Keywords: rollers (machinery); railways; rails; condition monitoring; adhesion; wheels; creep; strain gauges; vehicle dynamics; mechanical contact; mechanical stability; multibody dynamics; simulation; modeling; creepage; contact patch.
Subjects: T Technology > T Technology (General)
T Technology > TF Railroad engineering and operation
T Technology > TJ Mechanical engineering and machinery
Schools: School of Computing and Engineering
School of Computing and Engineering > Institute of Railway Research
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References: [1] A. Jaschinski, A. Chollet, S. Iwnicki, A. Wickens, J. Von Wurzen. “The Application Of Roller Rigs To Railway Vehicle Dynamics”. Vehicle System Dynamics. volume 31, pp. 345-392, (1999). [2] P, Allen. “Error Quantification Of A Scaled Roller Rig” Doctoral thesis, pp132, (2001). [3] S. Hsu. Z. Huang, S. Iwnicki, D. Thompson, C. Jones, G. Xie, P. Allen. “Experimental And Theoretical Investigation Of Railway Squeal” Proc IMechE Part F: Journal of Rail and Rapid Transit, volume 22, pp 59-72,(2007). [4] E. Gallardo, R. Lewis. “Twin Disk Assessment Of Wheel/Rail Adhesion” Wear, volume 225, pp 1310-1315,(2008). [5] N. Tassini, X. Quost, R. Lewis, R. Dwyer-Joyce, C. Ariaudo, N. Kuka. “A Numerical Model Of Twin Disk Test Arrangement For The Evaluation Of Railway Wheel Wear Prediction Methods” Wear, volume 268, pp 660-667, (2010). [6] P, Allen. H. Hsu, S. Iwnicki, D. Thomson, A. Monk-Steel, C. Jones. “Railway noise: Curve Squeal,Roughness Growth, Friction and Wear”. Railway Safety and Standards Board. Institute of Sound and Vibration Research, University of Southampton, pp 37-45, (2003). [7] A. Anyakwo, C. Pislaru. “On Quasi-Newton Method Applied to 2D Wheel-Rail Contact Models”. International Journal of Engineering Research & Technology, volume 3, pp 1962-1971, (2014). [8] E. Vollebregt, P. Wilders. “FASTSIM: A Second-Order Accurate Frictional Rolling Contact Algorithm” Computational Mechanics, volume 47, pp 105-116, (2010). [9] S. Wang, W. Yan-Hui, H. Bai-Yan. “Dynamic Modelling Of Flexible Multibody Systems With Parameter Uncertainties”. Chaos, Solitons & Fractals, volume 36, pp 605-611, (2008). [10] S. Pourya, F. BAbak. “Modelling of a 3-Phase Multiport Power Electronics Interface”. Industrial Electronics (ISIE), International Symposium IEEE, volume 26, pp 1035 – 1037, (2012). [11] J. Auzani, T. Sutikno, “Matlab/Simulink Based Analysis Of Voltage Source Inverter With Space Vector Modulation”. Telkomnika, volume 7, pp 23-30, (2009). [12] K. Bose. “Modern Power Electronics and AC Drives” 6th ed, Prentice-Hall, N.J, pp 391-476, (2006). 10 [13] G. Xiaofeng, Li. Zhengrong, Q. Wei. “Modeling and Simulation of Tooth-belt-driven Industry Servo System” International Conference on Electrical Machines and Systems, Shanghai, China. pp-3821-3824, (2008). [14] S. Sharma, P. Kamalesh, “Design of Machine Elements”. 6th ed. Prentice Hall of India, New Delhi, (2003). [15] V. L. Giurgiutiu, E. Sergey, “Mechatronics: Modelling, Analysis And Design With Matlab” 2nd ed, Borca Raton, London, pp 156, (2009). [16] N. Boss, A. Gugliotta, A. Soma. “Dynamic Behavior Of Railway Wheelset On A Roller Rig Versus Track Tangent” Shock and vibration, volume 11, pp 467-492, (2004). [17] H. Ronasi, J. Hakan, F. Larson. “Identification Of Wheel Rail Contact Forces On Strain Measurements, An Inverse Scheme And A Finite Element Model Of The Wheel” Proc IMechE Part F: Journal of Rail and Rapid Transit, volume 228, pp 348-354, (2014). [18] R. Lateb, N. Takorabet, and F. Meibody-Tabar, “Effect Of Magnesegmentation On The Cogging Torque In Surface-Mounted Permanent Magnet Motors” IEEE Trans. Magnetics, volume 42, pp.442-445, (2006). [19] Z. Ren, S. Iwnicki, “A New Method For Determining Wheel-Rail Multi-Point Contact” Vehicle System Dynamics, Volume 49, pp 1533-1551, (2011).
Depositing User: Crinela Pislaru
Date Deposited: 24 Mar 2015 14:33
Last Modified: 28 Aug 2021 18:18


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