Dynamic Response of a Cantilever Pile to Vortex Shedding in Regular Waves

Author:

Zedan M. F.1,Yeung J. Y.1,Salane H. J.2,Fischer F. J.3

Affiliation:

1. Brown & Root, Inc., Houston, Tex. 77001

2. Civil Engineering Department, University of Missouri-Columbia, Columbia, Mo. 65211

3. Shell Development Co., Houston, Tex. 77001

Abstract

This paper summarizes an experimental investigation of cantilever pile dynamics in response to wave excitation under vortex-shedding “lock-in” conditions. The study was carried out in regular waves for two conditions of wave length in relation to water depth. Pile response was measured in terms of top accelerations and bottom strains in both the in-line and transverse directions. Vortex-shedding lock-in is shown to produce substantial dynamic amplification of deflection not only in the transverse direction, but also in the in-line direction. Results indicate that the Morison equation is inadequate to describe the in-line force under vortex-shedding lock-in.

Publisher

ASME International

Subject

Geochemistry and Petrology,Mechanical Engineering,Energy Engineering and Power Technology,Fuel Technology,Renewable Energy, Sustainability and the Environment

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1. Numerical Study on Wave Induced Flow Field around a Vibrant Monopile Regarding Cross-Sectional Shape;International Journal of coastal and offshore engineering;2019-08-01

2. Interaction of a deep-water wave with a vertical cylinder: effect of self-excited vibrations on quantitative flow patterns;Journal of Fluid Mechanics;2007-01-23

3. Oscillations of a vertical elastically mounted cylinder in a wave: imaging of vortex patterns;Journal of Fluids and Structures;2003-06

4. Self-Excited Oscillations of Vertical and Horizontal Cylinders in Presence of a Free-Surface;IUTAM Symposium on Integrated Modeling of Fully Coupled Fluid Structure Interactions Using Analysis, Computations and Experiments;2003

5. The Response of a Vertical Cylinder in Waves;Journal of Fluids and Structures;1993-11

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