Test and Numerical Analysis of Natural Frequency for Tube

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Abstract:

In order to confirm the validity of calculating natural frequencies for filling liquid tube by the FEA. The simulation calculation could be achieved for tube vibration analysis of digital design. Natural frequencies are measured and calculated for tubes with liquid by the FEA and test. Using the hammering method vibration feature is tested for freedom tube of empty, filling oil and filling fuel. And natural frequencies are calculated by the FEA on ANSYS software. Effect factors are analyzed on natural frequencies for tube diameter, liquid type etc. Especially the numerical value of frequency decrease is found with filling liquid tube. The calculation model of natural frequencies is build on including several factors such as filling liquid. The technology foundation is established for analyzing tube vibration features. The simplification calculation could be provided for simulating vibration analysis of digital design tubes.

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13-16

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January 2014

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© 2014 Trans Tech Publications Ltd. All Rights Reserved

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[1] WANG Guopeng WAN Li and ZHOU Yangna: Vibration failure of the aero-engine tube. Journal of Vibration Engineering, Vol. 21-S (2008), pp.191-194.

Google Scholar

[2] JIA Zhigang, CHEN Zhiying: Investigation of Frequency Modulation for Aeroengine Pipeline Based on Parameterization. Aeroengine,Vol. 34-4(2008), P. 34-37.

Google Scholar

[3] YANG Ying, CHEN Zhiying: Calculation and Analysis on Natural Frequency of Fluid Structure Interaction in Aero-engine Pipelines. Gas Turbine Experiment and Research, Vol. 23-1(2010), P. 42-46.

Google Scholar

[4] Zhang L, Tiisseling A S and Vardy A E: FSI analysis of liquid filled pipes. J Sound Vib, Vol. 224-1(1999), P. 69-99.

DOI: 10.1006/jsvi.1999.2158

Google Scholar

[5] CAO Liang: Characteristic Analysis of Fluid Structure Interaction in Liquid-filled Pipe. Kunming University of Science and Technology. KUST Academic Publishers, (2004).

Google Scholar

[6] LIU Shang, LIU Hongjun, XU Haohai, CHENG Yawei and CHEN Hongyu: Frequency Characteristics and Stability of the Flow Regulator-Pipe System. Journal of Propulsion Technology, Vol. 4(2012),P. 631-638.

Google Scholar

[7] ZHANG LiXiang, YANG Ke: The fluid structure interaction theory and its application. Science Press. (2004).

Google Scholar

[8] China institute of aeronautical materials. China aviation materials manual. China aviation engine corporation Publishers. (2005).

Google Scholar

[9] CAO Changwu. Fuel products quality inspection manual. China Standards Press. (2007).

Google Scholar