复合材料轴在高速转子-轴承系统中的动力学研究

Q4 Engineering
Thimothy Harold Gonsalves, G. C. M. Kumar, M. Ramesh
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引用次数: 2

摘要

本文对高速转子-轴承系统中的复合材料轴进行了分析,并考虑了复合材料轴的内阻尼作用,以获得更好的转子动力学特性。回顾了旋转复合轴和内阻尼的先驱研究,以评估其对高速转子-轴承系统转子动力学的影响。选择了两种实际的转子轴承系统来研究它们在复合轴应用中的适用性,其中在冷段使用复合材料,而在热段和末端保留现有的钢合金。转子动力学分析表明,将现有金属轴转子-轴承系统的第一横模态由弯曲模态转变为理想的刚性模态后,转子动力学得到了显著改善。第二和第三模态的频率值也高于运行速度,表明转子动力学具有明显的优势。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Dynamic study of composite material shaft in high-speed rotor-bearing systems
In this work the composite material shaft in high-speed rotor-bearing systems is analysed to achieve better rotor dynamics along with the effect of internal damping of the composite shaft. The pioneering studies on rotating composite shaft and internal damping are revisited to evaluate its effects on rotor dynamics of high-speed rotor-bearing systems. Two practical rotor-bearing systems are selected to study their suitability for composite shaft application where the composite material is used in the cold section while the existing steel alloy is retained in the hot section as well as at the ends. The rotor dynamic analysis shows significant improvements in rotor dynamics of one of the rotor-bearing systems where the first lateral mode changes to desirable rigid mode from flexure mode shape of existing metallic shaft rotor-bearing system. The frequency values of second and third modes also increase above the operating speed indicating a clear advantage in rotor dynamics.
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来源期刊
International Journal of Vehicle Noise and Vibration
International Journal of Vehicle Noise and Vibration Engineering-Automotive Engineering
CiteScore
0.90
自引率
0.00%
发文量
17
期刊介绍: The IJVNV has been established as an international authoritative reference in the field. It publishes refereed papers that address vehicle noise and vibration from the perspectives of customers, engineers and manufacturing.
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