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Abstract: fluid-structure interaction (FSI) in vibrating pipe systems is a phenomenon that finds its source, among other mechanisms, in unbalanced pressure forces acting on loose elbows. The subject has received considerable attention in theoretical research and practical engineering. Sixteen laboratory experiments carried out on liquid-filled single-elbow (L-shaped) pipe systems are reviewed herein. Eight frequency-domain and eight time-domain experiments are concisely described in the Appendices A and B. The purpose of nearly all experiments was to study FSI and demonstrate the influence of moving elbows on the dynamic behavior of liquid-filled piping systems. This historical review has an educational character with regard to the execution of laboratory experiments featuring FSI.

Excellent, short, concise and useful literature review on a very specific (but insightful) type of FSI experiments.The paper describes a selection of the most representative experiments in both time and frequency-domains for fluid-structure interaction analyses in single-elbow pipe systems. Additionally, the author takes the chance to instruct researchers on the importance of following the basic principles in (experimental) research like replicability, precision or falsifiability. The author reviews sixteen classic laboratory experiments of single-elbow pipes and gives people some practical advice in setting up new tests to prevent errors made in the past. This manuscript is useful for people less familiar with the subject or people new in the field.

关于单弯管系统中流固耦合实验的概述

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