The Influence of Blade Structure Optimization on the Hydraulic Performance of Vane Pump

Authors

  • Jianqiang Sun
  • Sheng Li
  • Hao Wang

DOI:

https://doi.org/10.54097/54yg0j97

Keywords:

Vortex Principle; Annular Pressure Drop; Structural Optimization; Vane Pump.

Abstract

Vane pump has the problems of low pressure reduction efficiency and easy to be stuck at the bottom of the well. In order to solve this problem, the annular pressure reduction downhole tool of vane pump based on eddy current principle is adopted. On the basis of introducing the principle of eddy current hydraulic pressure reduction technology, this paper studies the influence of blade number, blade outlet angle, blade chord height and blade thickness on tool characteristics. The results show that the tool head increases with the increase of blade number, increases first and then decreases with the increase of blade outlet angle, and decreases first and then stabilizes with the increase of blade wall thickness and chord height. The tool efficiency increases with the increase of blade number, decreases with the increase of blade chord height, and decreases with the increase of blade outlet angle to a certain value, which is less sensitive to blade wall thickness. The research results have important guiding significance for the design and structural optimization of blade annular pressure reducing tools.

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References

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Published

26-03-2024

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Section

Articles