The Experiment and Simulation Study of the Powered Resonance Tube Driven by Annular Jet

Abstract:

In order to generate low frequency acoustic wave and minish the ratio of the length to diameter, it is appropriate to instead the circular jet by annular jet as the high pressure gas power. So the larger diameter of jet and resonator are got in the condition of the same pressure and flux. Flow simulations and experiments have been performed in order to better understand the behavior of the powered resonance tube (PRT) driven by annular. Simulation and experiment results show the PRT can be excited by a annular jet, and produce low frequency high-amplitude dynamic pressures and acoustic emission. The compression wave and expansion wave transmit into and out of the resonance tube alternately in a cycle and a cycle can be decomposed to two distinct stages of filling and evacuation. In experiment PRT can work in the low frequency at very low pressure, and PRT can generate intense sound wave at frequency from 50~3200Hz.

• Periodical: Applied Mechanics and Materials (Volumes 602-605)
• Pages: 3013-3016
• DOI: https://doi.org/10.4028/www.scientific.net/AMM.602-605.3013
• Online since: August 2014
• Authors: Zhang Fu Tian*, Chang Chao Gong, Xiao Peng Kong, Hai Yang Sun
• Keywords: Aeroacoustic, Experiment, Low Frequency, PRT, Resonance

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