Study on modal flexibility and sensitivity to parameters in the main drive system of rolling mill

Torsional vibration is universal in the main drive system of rolling mill. In this paper, the spring-mass system dynamic model describing torsional vibration is built, and proved to be feasible through comparing the first-order natural frequency with the experimental result. On the basis of the vali...

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Hauptverfasser: Zhiying Gao, Diping Wu, Qin Qin
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Diping Wu
Qin Qin
description Torsional vibration is universal in the main drive system of rolling mill. In this paper, the spring-mass system dynamic model describing torsional vibration is built, and proved to be feasible through comparing the first-order natural frequency with the experimental result. On the basis of the validated model, the modal energy and flexibility distribution is analyzed and the results indicate that the system energy is mainly centralized at the first-order mode, which is easily excited and most frequently observed in the actual rolling process. Moreover, the system sensitivity to the moment of inertia and the torsional stiffness is analyzed, and the best way modifying system parameters to modulate the natural frequencies is studied. All these conclusions are significant to structure design, parameter optimization and vibration control for the mill drive system.
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In this paper, the spring-mass system dynamic model describing torsional vibration is built, and proved to be feasible through comparing the first-order natural frequency with the experimental result. On the basis of the validated model, the modal energy and flexibility distribution is analyzed and the results indicate that the system energy is mainly centralized at the first-order mode, which is easily excited and most frequently observed in the actual rolling process. Moreover, the system sensitivity to the moment of inertia and the torsional stiffness is analyzed, and the best way modifying system parameters to modulate the natural frequencies is studied. All these conclusions are significant to structure design, parameter optimization and vibration control for the mill drive system.</abstract><pub>IEEE</pub><doi>10.1109/MACE.2010.5535309</doi><tpages>5</tpages></addata></record>
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subjects Couplings
Damping
Design optimization
Frequency
Gears
Mechanical engineering
mill
Milling machines
modal flexibility
Resonance
sensitivity
system parameters
Torque
torsional vibration
Vibration control
title Study on modal flexibility and sensitivity to parameters in the main drive system of rolling mill
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