Experimental Study on Vibration of a Rotating Pipe in Still Water and in Flow

IF 4.6 Q2 MATERIALS SCIENCE, BIOMATERIALS ACS Applied Bio Materials Pub Date : 2023-03-01 DOI:10.2478/pomr-2023-0007
Xinge Geng, Weiguo Wu, Erpeng Liu, Yongshui Lin, Wei Chen, C. Rheem
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Abstract

Abstract To illustrate the vibration characteristics of a rotating pipe in flow, experiments were conducted for a pipe in flow, a rotating pipe in still water and a rotating pipe in flow. For the pipe in flow without rotation, the trajectory diagram is ‘8’ shaped. For the rotating pipe in still water, a multiple frequency component was induced, and a ‘positive direction whirl’ was found. For the flow and rotation, at a flow velocity of 0.46 m/s, the vibration is dominated by the combination of flow and rotation. With an increase in rotating frequency, the trajectory of the rotating pipe varies from an ‘8’ shape to a circular shape and the ‘reverse direction whirl’ is induced, which is different from ‘positive direction’ in still water. The vibration frequency ratio increases uniformly with flow velocity. At a flow velocity of 1.02 m/s, at which the frequency is close to the theoretical natural frequency, the vibration frequency ratio is f*≈1. Predominantly governed by vortex-induced vibration (VIV), the vibration behavior of a rotating pipe subjected to fluid flow conditions has been found to exhibit complete vanishing of whirl. The vibration characteristics of a rotating pipe in flow are studied by the experiments which is benefit for structural drilling design.
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旋转管在静水和流动中的振动实验研究
摘要为了说明流动中旋转管道的振动特性,分别对流动中的管道、静水中的旋转管道和流动中的旋转管道进行了振动实验。对于不旋转流动的管道,轨迹图为“8”形。对于静水中的旋转管道,产生了一个多频分量,得到了一个“正方向旋流”。对于流动和旋转,在流速为0.46 m/s时,振动以流动和旋转组合为主。随着旋转频率的增加,旋转管的运动轨迹由“8”形变为圆形,产生与静水中“正方向”不同的“反向旋流”。振动频率比随流速均匀增大。当流速为1.02 m/s,频率接近理论固有频率时,振动频率比为f*≈1。在流体流动条件下,旋转管道的振动行为主要受涡激振动(VIV)控制,表现为旋涡完全消失。通过实验研究了旋转管道在流动中的振动特性,为结构钻孔设计提供了理论依据。
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来源期刊
ACS Applied Bio Materials
ACS Applied Bio Materials Chemistry-Chemistry (all)
CiteScore
9.40
自引率
2.10%
发文量
464
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