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Acoustic characteristics of a mean flow acoustic engine capable of wind energy harvesting: Effect of resonator tube length

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  • Sun, Daming
  • Xu, Ya
  • Chen, Haijun
  • Shen, Qie
  • Zhang, Xuejun
  • Qiu, Limin

Abstract

A mean flow acoustic engine based on the aerodynamic effects converts wind energy and fluid energy in pipelines into acoustic energy which can be used to drive thermoacoustic refrigerators and transducers without any mechanical moving parts. A mean flow acoustic engine with the resonator tube length regulated steplessly was developed for experimental study. Experimental results reveal the effects of the resonator tube length and the mean flow velocity. When the single end closed resonator length is between 150 mm and 230 mm, the acoustic field is in the fundamental mode; more odd acoustic modes appear in turn with the increase of the resonator length. There exist stable oscillation regions in certain ranges of the mean flow velocity. The critical lengths occurring between the transition points of acoustic modes are determined experimentally. Furthermore, the strong acoustic oscillation in the first hydrodynamic mode and the first acoustic mode is more likely to occur at short resonator. With the mean pressure of 106.36 kPa, the mean flow velocity of 50.35 m/s, and the single end closed resonator length of 190 mm, the mean flow acoustic engine demonstrates a pressure amplitude of 15.67 kPa, showing a great potential in mean flow energy harvesting.

Suggested Citation

  • Sun, Daming & Xu, Ya & Chen, Haijun & Shen, Qie & Zhang, Xuejun & Qiu, Limin, 2013. "Acoustic characteristics of a mean flow acoustic engine capable of wind energy harvesting: Effect of resonator tube length," Energy, Elsevier, vol. 55(C), pages 361-368.
    • Handle: RePEc:eee:energy:v:55:y:2013:i:c:p:361-368
    DOI: 10.1016/j.energy.2013.03.071
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    References listed on IDEAS

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    1. Guo, Zhenhai & Zhao, Jing & Zhang, Wenyu & Wang, Jianzhou, 2011. "A corrected hybrid approach for wind speed prediction in Hexi Corridor of China," Energy, Elsevier, vol. 36(3), pages 1668-1679.
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    Cited by:

    1. Yu, Yan S.W. & Sun, Daming & Zhang, Jie & Xu, Ya & Qi, Yun, 2017. "Study on a Pi-type mean flow acoustic engine capable of wind energy harvesting using a CFD model," Applied Energy, Elsevier, vol. 189(C), pages 602-612.
    2. Wang, Kai & Sun, Daming & Xu, Ya & Zou, Jiang & Zhang, Xiaobin & Qiu, Limin, 2014. "Operating characteristics of thermoacoustic compression based on alternating to direct gas flow conversion," Energy, Elsevier, vol. 75(C), pages 338-348.
    3. Zhou, Zhiyong & Qin, Weiyang & Zhu, Pei & Shang, Shijie, 2018. "Scavenging wind energy by a Y-shaped bi-stable energy harvester with curved wings," Energy, Elsevier, vol. 153(C), pages 400-412.
    4. Ya Xu & Jiangqi Yuan & Daming Sun & Dailiang Xie, 2022. "Piezoelectric Harvesting of Fluid Kinetic Energy Based on Flow-Induced Oscillation," Energies, MDPI, vol. 15(23), pages 1-11, December.
    5. Liuyi Jiang & Hong Zhang & Qingquan Duan & Xiaoben Liu, 2021. "Numerical Simulation of Acoustic Resonance Enhancement for Mean Flow Wind Energy Harvester as Well as Suppression for Pipeline," Energies, MDPI, vol. 14(6), pages 1-17, March.
    6. Zhou, Zhiyong & Qin, Weiyang & Zhu, Pei, 2017. "Harvesting acoustic energy by coherence resonance of a bi-stable piezoelectric harvester," Energy, Elsevier, vol. 126(C), pages 527-534.
    7. Qin, Weiyang & Deng, Wangzheng & Pan, Jianan & Zhou, Zhiyong & Du, Wenfeng & Zhu, Pei, 2019. "Harvesting wind energy with bi-stable snap-through excited by vortex-induced vibration and galloping," Energy, Elsevier, vol. 189(C).

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